WO1988010222A1 - Compound container - Google Patents

Compound container Download PDF

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Publication number
WO1988010222A1
WO1988010222A1 PCT/JP1988/000632 JP8800632W WO8810222A1 WO 1988010222 A1 WO1988010222 A1 WO 1988010222A1 JP 8800632 W JP8800632 W JP 8800632W WO 8810222 A1 WO8810222 A1 WO 8810222A1
Authority
WO
WIPO (PCT)
Prior art keywords
container
cooling
temperature
containers
control device
Prior art date
Application number
PCT/JP1988/000632
Other languages
French (fr)
Japanese (ja)
Inventor
Shiro Amano
Tsutae Suzuki
Original Assignee
Furuno Electric Company, Limited
Tomoe Bosaitsusin Kabushiki Kaisha
Priority date (The priority date is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the date listed.)
Filing date
Publication date
Priority claimed from JP63048939A external-priority patent/JPH0385282A/en
Priority claimed from JP63105967A external-priority patent/JPH0385281A/en
Application filed by Furuno Electric Company, Limited, Tomoe Bosaitsusin Kabushiki Kaisha filed Critical Furuno Electric Company, Limited
Publication of WO1988010222A1 publication Critical patent/WO1988010222A1/en

Links

Classifications

    • BPERFORMING OPERATIONS; TRANSPORTING
    • B65CONVEYING; PACKING; STORING; HANDLING THIN OR FILAMENTARY MATERIAL
    • B65DCONTAINERS FOR STORAGE OR TRANSPORT OF ARTICLES OR MATERIALS, e.g. BAGS, BARRELS, BOTTLES, BOXES, CANS, CARTONS, CRATES, DRUMS, JARS, TANKS, HOPPERS, FORWARDING CONTAINERS; ACCESSORIES, CLOSURES, OR FITTINGS THEREFOR; PACKAGING ELEMENTS; PACKAGES
    • B65D88/00Large containers
    • B65D88/74Large containers having means for heating, cooling, aerating or other conditioning of contents
    • B65D88/745Large containers having means for heating, cooling, aerating or other conditioning of contents blowing or injecting heating, cooling or other conditioning fluid inside the container
    • FMECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F25REFRIGERATION OR COOLING; COMBINED HEATING AND REFRIGERATION SYSTEMS; HEAT PUMP SYSTEMS; MANUFACTURE OR STORAGE OF ICE; LIQUEFACTION SOLIDIFICATION OF GASES
    • F25BREFRIGERATION MACHINES, PLANTS OR SYSTEMS; COMBINED HEATING AND REFRIGERATION SYSTEMS; HEAT PUMP SYSTEMS
    • F25B21/00Machines, plants or systems, using electric or magnetic effects
    • F25B21/02Machines, plants or systems, using electric or magnetic effects using Peltier effect; using Nernst-Ettinghausen effect
    • FMECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F25REFRIGERATION OR COOLING; COMBINED HEATING AND REFRIGERATION SYSTEMS; HEAT PUMP SYSTEMS; MANUFACTURE OR STORAGE OF ICE; LIQUEFACTION SOLIDIFICATION OF GASES
    • F25DREFRIGERATORS; COLD ROOMS; ICE-BOXES; COOLING OR FREEZING APPARATUS NOT OTHERWISE PROVIDED FOR
    • F25D11/00Self-contained movable devices, e.g. domestic refrigerators
    • F25D11/003Transport containers
    • FMECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F25REFRIGERATION OR COOLING; COMBINED HEATING AND REFRIGERATION SYSTEMS; HEAT PUMP SYSTEMS; MANUFACTURE OR STORAGE OF ICE; LIQUEFACTION SOLIDIFICATION OF GASES
    • F25BREFRIGERATION MACHINES, PLANTS OR SYSTEMS; COMBINED HEATING AND REFRIGERATION SYSTEMS; HEAT PUMP SYSTEMS
    • F25B2321/00Details of machines, plants or systems, using electric or magnetic effects
    • F25B2321/02Details of machines, plants or systems, using electric or magnetic effects using Peltier effects; using Nernst-Ettinghausen effects
    • F25B2321/021Control thereof
    • F25B2321/0212Control thereof of electric power, current or voltage
    • FMECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F25REFRIGERATION OR COOLING; COMBINED HEATING AND REFRIGERATION SYSTEMS; HEAT PUMP SYSTEMS; MANUFACTURE OR STORAGE OF ICE; LIQUEFACTION SOLIDIFICATION OF GASES
    • F25BREFRIGERATION MACHINES, PLANTS OR SYSTEMS; COMBINED HEATING AND REFRIGERATION SYSTEMS; HEAT PUMP SYSTEMS
    • F25B2321/00Details of machines, plants or systems, using electric or magnetic effects
    • F25B2321/02Details of machines, plants or systems, using electric or magnetic effects using Peltier effects; using Nernst-Ettinghausen effects
    • F25B2321/023Mounting details thereof

Definitions

  • the present invention relates to a container used for transporting goods, and more particularly to a composite container in which a small container is housed in a large container and a method of transporting the composite container.
  • insulated containers have been used to transport refrigerated or frozen foods.
  • This container is made of an insulated body using heat-insulated wall material and has a cooling device for refrigeration or cooling the inside.
  • the transported goods taken out of the refrigerator or freezer are stored in a container, and the container is mounted on a truck dedicated to the cold storage container.
  • the container is mounted on a truck dedicated to the cold storage container.
  • the container is reloaded from the truck to the container ship, and this time it is pulled by the electricity flooded from the container ship. Read and perform the cooling operation.
  • Containers transported along the sea route will be loaded again on a container-only truck with power supply facilities at the destination port and wetted to the consumption area.
  • containers transported by truck are loaded on the container ship, or containers transported by container ship are loaded on the truck. It may be stored for half a day or two days until it is plugged in.However, it is necessary to cool it, so the container yard needs power supply equipment to supply electricity to the container .
  • the dimensions of a commonly used container have a cross section of 8 x 8 feet and a length of 2 Q or 40 feet, and sufficient cooling is required for such large-volume containers.
  • relatively large capacity cooling equipment is hired.
  • the cooling equipment Containers could only be handled in container yards that had large-capacity power supply equipment that could be lined up, and changes in transportation routes could occur.
  • trucks dedicated to insulated containers that use large-capacity power sources and must also be transported to consumption areas using large and heavy containers. Efficient transportation was not possible.
  • goods are stored directly in the container, depending on the goods to be stored, it is necessary to clean and deodorize the container ⁇ after use, and the operation rate of the container has decreased.
  • An object of the present invention is to provide a composite container which eliminates the above-described restrictions on container transportation and improves transportation efficiency. Disclosure of the invention
  • the composite container of the present invention comprises a first large container and a small second container housed in the first container, wherein the first and second containers are insulated heat insulating wall materials. And a temperature control device for cooling or heating a part of the device.
  • the second container is characterized in that it has a transmission means for transmitting heat outside the second container into the second container.
  • Anchina discards the temperature in each second container, and ⁇ 3 ⁇ 4 compares the detected temperature in each second container detected by the detector with the target temperature.
  • a special feature is that a tortoise tortoise that transmits a symbol for activating the temperature control device of the second container having a large difference between the detected temperature and the target temperature is provided.
  • the transport method using the composite container of the present invention comprises a first container and a first container; a plurality of second containers to be accommodated therein, wherein the first and second containers are: Using a composite container made of insulated heat insulating wall materials and equipped with a temperature control device that cools or heats the inside, the second container containing transported goods is housed in the first container. It is characterized by being transported.
  • the composite container according to the present invention comprises a plurality of second containers housed in the i-th container and the first container, and the second container
  • the container used was a composite container made of insulated and heat-insulating wall material and equipped with a device to cool or ripen the inside.
  • the second container containing the transported goods was stored in the first container ⁇ Sending a message with I is called a prayer.
  • FIG. 1 is a front view showing one embodiment of the composite container of the first invention
  • FIG. 2 is a cross-sectional view showing another embodiment of the present invention
  • FIG. 3 is a side view of FIG.
  • FIG. 4 is a cross-sectional view
  • FIG. 4 is a plan view showing the electrical connection of each device in FIG. 2
  • FIG. 5 is a circuit diagram showing details of FIG. 4,
  • FIG. 2 is a partially enlarged cross-sectional view showing an example of the cold air transfer device shown in FIG. 2
  • FIG. 7 is a plan view showing the air gun of each device and allocation showing still another embodiment of the present invention
  • FIG. 8 is a circuit diagram showing details of FIG. 7, and FIG.
  • FIG. 9 is a plan view showing electric connections of respective devices showing still another embodiment of the present invention.
  • FIG. 3 is a circuit diagram showing details of the embodiment.
  • Actual example FIG. 1 shows an embodiment of the composite container of the present invention. 1 is a large No. 1 container of the same size as a container used for transport by a conventional ship, for example, and has a new fixed strength. .
  • Reference numeral 3 denotes a door provided at one end in the longitudinal direction of the first antenna i so as to be opened and closed by a human.
  • Reference numeral 1 denotes a second container formed of a rectangular casing, and in this embodiment, three containers can be accommodated in the first container 1 ⁇ in parallel in the longitudinal direction of the first container 1. It has various dimensions.
  • the second container 11 is composed of a wall material 12 using a heat insulating and heat insulating material, and a door 13 is provided on one side of the second container 11 for opening and closing when collecting articles.
  • a cooling device (14) is provided on the wall (12a) of the container (11) on the side facing the door (13) .
  • the cooling device (14) is an electronic cooling device using the Pelchu effect, Element 14a, located in the second container, Heat-absorbing fins 14b that contact the heat-absorbing surface of the electronic cooling element 14a, and heat-radiating fins 14c that are located outside the container and that contact the heat-radiating surface of the electronic cooling element 14a.
  • a normal cooling device g including a compressor, a condenser, and an evaporator may be used.
  • Reference numeral 15 denotes a cooling operation control device, which controls the preceding S3 cooling device 14 in accordance with a detection signal from a temperature detector 16 composed of, for example, a thermistor for detecting a temperature.
  • Reference numeral 17 denotes a cylindrical fan for convection of cold air
  • reference numeral 18 denotes a Xiao control device for converting a commercial power supply into a DC voltage, for example, 24 V, which is a drive voltage of the cooling device 14.
  • the lower surface of the 23rd antenna 11 is provided with wheels 19 which can move freely.
  • the wheels 19 are mounted on the rail 4 so as to be turned around, and each of the second containers 11 is a rail. 4 move the top that has become out cut off the configuration from the first container 1 ⁇
  • Reference numeral 5 denotes a power supply connection box fixed to one wall 2 of the first antenna 1.
  • the power supply connection box is provided with a main connector 5a to receive air supplied from a container ship or the like, and a branch connector 5b. Through each 2nd continer 1 1 ⁇ cooling equipment Supplied to gl 4 and fan 7. Further, on the fall-down wall of the first container 1 and the like, there are provided appropriate heat exchange ports or ventilation holes (not shown) for releasing heat radiation from the second container 11 to the outside.
  • each second container 11 is connected to the power supply connection box 5 by each branch connector 5b. Then, the first container 1 is loaded on a container ship, and the electric connection gag 5 is connected to the power supply of the container ship via the main connector 5a. As a result, each second container 11 in the is container 1 starts the cooling operation.
  • the cooling operation of each second container 11 is performed even during the storage.
  • the cooling operation is performed by the DC converted by the Xiaoyuan control device 18 of the container 11, and therefore, a large-capacity power supply equipment is not required even at the port of loading as the S dynamism of the container.
  • the container transported by the sea route is to be unloaded at the port at the destination, where the first container 1 is unloaded from the container ship, and the second container 11 taken out from the first container 1 is Can be transported on ordinary trucks as well as forehead 0
  • a refrigerated or frozen article can be sent by providing the conventional container with the connection box 5 and the heat vent.
  • FIG. 2 shows a second embodiment of the composite container.
  • the same parts are denoted by the same reference numerals.
  • the same reference numerals denote the same functions.
  • the wall 2 on the side facing the sin 3 of the large first container similar to that shown in Fig. 1 is provided with a first cooling mechanism for cooling the IS container 1 '.
  • the wall 2 and the door 3 that make up the above housing are made of a heat-insulating material.
  • the above-mentioned first cooling mechanism 6 is a commonly used cooling mechanism composed of sho box ⁇ , condensed poppy, evaporating ⁇ , etc., and the space in the 13th antenna 1 to be cooled is a Therefore, it has high cooling performance and requires a large drive power supply.
  • the second antenna 10 is provided with a cool air heat transfer device 20 for transmitting the temperature of the cool air of the first container ⁇ into the second container.
  • a cool air heat transfer device 20 for transmitting the temperature of the cool air of the first container ⁇ into the second container.
  • An opening 20a is provided in the upper set portion of both side walls 12y of the second container 11 ', and the opening between the two openings 20a is inserted.
  • a 3-shaped duct 2 Ob is provided, and the duct 2 Ob forms an air passage 2 Oe.
  • Both openings 20a are provided with electric shutters 20c for opening and closing the openings 2, and In the air passage 2 Oe, a fan 2 Od for sucking cool air is provided in the vicinity of one shutter 12 Oe.
  • a wide heat exchange plate 21 is provided in close contact with the lower surface of the duct 2 Ob.
  • the ventilation fan 2 Od operates, and the air in the third antenna 1 'flows into the ventilation path 20e, and at that time, The heat (cold heat) of the flowing air is supplied to the second container 11 via the duct member 2Ob and the plate 21.
  • Heat is taken into the second container 1 ⁇ ⁇ ⁇ by the cold air heat transfer device 20, when the first container ⁇ is cooled to a predetermined temperature or less, the cold heat is transferred to the second container 1 ⁇ . This is done so that On the other hand, when the cutter 2 Oa closes and the ventilation fan V 2 Od stops, the inside and outside of the second container 11 1 Heat transfer is obstructed, so that when the second container 1 ⁇ ⁇ is taken out of the first container 1 ′, it prevents external warm air from entering the second container 1 ⁇ , The heat of the antenna is maintained so that it is maintained.
  • Opening and closing of the upper S5 container 2 O a may be performed by work or manual operation, but when the temperature of the first container 1 drops and reaches a predetermined value of ⁇ g, the container is opened. It is convenient to use a shape memory alloy that deforms to a new fixed shape so that the data 2Oa opens.
  • the shutter 20a is closed, the ventilation fan 2.0d is stopped, and external warming is prevented from entering the second container 11 '.
  • the cooling performance of 14 is not impaired.
  • the power supply for operating the cooling device 14 of each of the second containers 1 ⁇ is branched from the power supply branch gag 5 provided in the large first container 1 ′ and 12 concealed. Given via the electronic supply line. However, for example, if the cooling mechanism 14 of each second container 11 'is started simultaneously, the capacity of the electric dew will be uncertain, and the loading of the load stored in the container will not be sufficiently cooled. State arises. In order to prevent this, the cooling mechanisms i4 of the respective second continers are activated at different times. A control device for starting each of the cooling mechanisms 14 will be described below.
  • FIG. 4 is a plan view showing electrical connections between devices in FIG. Via the connector 5a:
  • the cooling system 6 and the main control unit 40 described above are connected to the power supply line 31 that receives power supply from the container ship, etc.
  • the cooling device 14 and the cooling operation control device 15 of each second container 11 ' are connected to the second container 11'.
  • the common power supply line 31 can be read and read by the ⁇ -connectors 32a, 32b, 32c provided corresponding to the respective small second containers 11 l'b, 1 l'c. ing.
  • Each of the second container coolers 14a, 1b, and 14c is connected to an individual connector 32a, 32b corresponding to the individual power supply line 31a, 3lb, 31e. , 32c.
  • Part of the electric power supplied to the small container coolers 14a, 14b, 14e It is used as drive power for the control units 15a, 15b, 15 ⁇ .
  • the common power supply line 31 is provided with a power supply filter circuit 33 composed of a capacitor C1 inserted between the lines 31 and two coils L1 inserted in series with each line 3I. Have been.
  • the cooling operation power is cut off between each power supply line 31a, 3lb, 31c and each cooling operation control unit 15a, 15b, 15e to control signals and
  • the control signal lines 34a, 34b, and 34c for extracting data are connected to each other.
  • the common power supply line 31 and the chief alert allocation are connected to each other.
  • control signal lines 34e are not connected to each other.
  • Each of these control lines 34a, 34b, 34c, 34e has a power factor for cooling operation. Indicates a large delay, and shows a small impedance with respect to the refrigerator temperature signal transmitted from the main controller 40 and the cooling operation control units 15a, 15b, and 15c.
  • the cooling operation power cut-off capacitors c3a, e3b, c3c, and c3e shown are interposed, respectively. In this way, the control signals 34a, 34b, 340, 34e and the individual 1-control flood line 31 are used for the heating signal and cooling. A signal line for transmitting the operation control signal is generated.
  • the main control unit 40 is formed using a micro computer (MPU), operates according to the program stored therein, and operates each second container cooling machine 14 a, 1
  • the ⁇ main control pick-up device S 40 which sends control signals for starting 4 b and 14 c to the corresponding cooling operation control devices 15 a, 15 b, and 15 e, uses a power supply line.
  • the cooling operation control units 15a, 15b, and 15c of the second The first data request signal is transmitted to mutually different timings assigned to the respective continas.
  • the cooling operation control units 15a, 15b, 15c determine the internal temperature of each of the second containers 11'a, 1, b, 11 ' «3.
  • the S data is sent to the main controller 40.
  • the main controller 40 preliminarily sets the temperature data supplied from the cooling operation control units 15a, 15b, and 15e in a target temperature setting unit 50 provided for each second continer 1. Compared with the data indicating the target temperature, the difference between the detected overflow data and the temperature of the eye collar is large, that is, the cooling operation of the small container that can be judged to have the highest urgency of the cooling operation. Go to your part Sends a work control signal.
  • the arm temperature data of the remaining two second containers is compared with the target, and after the first start control signal is transmitted, after a lapse of a fixed time, then the cooling operation S After sending the second start control signal, the ⁇ main controller 40 that sends the start control signal to the cooling operation control unit of the second container that has a high degree 2 Send start control signal to antenna
  • the raw control device 40 transmits a temperature data request signal to the respective cooling operation control units 15a, 15b, 15c of the second containers 1 l'a, 1 l, b, 1 l'c.
  • a signal for requesting the data indicating the temperature in the refrigerator is supplied to the Oshikako Line 31 via the capacitor C 3 e to each container 1 l. Transmit at the timing of the signal assigned to 'a, 1 l'b, 1 I'e.
  • This signal includes three second containers 11 includes an ID number for identifying each of them.
  • the main control equipment 40 When the main control equipment 40 receives the internal temperature data from one of the second containers, for example, 11'a, the other two T2 containers 11'b, 11 'have different timings sequentially. ⁇ Requests that c temperature data be transmitted to c as well.
  • the main controller 40 receives the internal temperature data of each of the three second 'containers 11', the main controller 40 pre-sets the internal temperature data for each container 11 ''.
  • the start signal for starting each of the cooling devices 14 of the second container 1 that has been determined to have the highest degree of urgency for the cooling operation by comparing with the target temperature is sent to the cooling operation control device, for example, 15a. You.
  • the inside temperature data of the remaining two second containers for example, 1 l'b, 1 l, and c, are stored in each container.
  • the emergency signal of the cooling operation ⁇ ⁇ ⁇ 2 china, for example, the start signal is sent to 1 l'b
  • an activation signal is output to the last second continuator that has not been activated, for example, 1 l'c.
  • the cooling operation control section 15a which has received the start control signal, 1 5b, 1 5c the corresponding cooler 14 a r 14 b, as well as OkoshiTsutomu the 14c, miniature co based on the temperature signal and eye ⁇ degree temperature detectors 16 a, 16 b, 1 6c throws Control is performed by, for example, disconnecting the coolers 14a, 14b, and 14e so as to maintain the temperature inside the antenna at a predetermined temperature.
  • a relay consisting of a relay coil and a relay contact is provided in the electric circuit in the small-sized refrigerators 1414b and 14c.
  • the engine is driven in response to an operation signal from the control unit 15a, 15b, 15e, and the cooling contacts 14a, 1b, 14c are driven by closing the relay contact.
  • the shutter 20c of the cool air heat transfer device 20 in the second container 11 ' is opened, and the pump 2Od is operated.
  • the cool air in the first container flows through the heat conductive duct 2Q'b, and the cool air in the second container 1 passes through the heat exchange plate 21. Since the temperature is transmitted, each second container 11 is rapidly cooled.
  • the shutter 2 O c of the heat transfer device 20 is opened, and the fan 2 O d is rolled up. Since the cooling of the first container ⁇ is supplied to the second container 1 I 'via the upper 13 exchange plates 2', the cooling device 14 of each second container 1 ⁇ can be stopped or operated intermittently. The storage temperature can be maintained at the target value.
  • each second container 11 is operated in the order of urgency of cooling, but the second container 11 is operated in a preset order. You may.
  • FIG. 6 and FIG. 6 are enlarged cross-sectional views showing an embodiment of the cold air heat transfer device 20 of the second container 11.
  • a pair of heat introduction portions ⁇ 41, 42 facing each other is provided at a predetermined portion of the upper wall surface 12X of the second contina 1 1 ', and is arranged on the outer surface (upward in the figure).
  • the heat introduction member 41 on the side to be heated is slidably provided in the left and right direction in the figure as shown by the arrow K.
  • Each of the heat introducing members 4 1, 4 2 is made of a material having good heat conductivity such as aluminum ⁇ , and each of the heat introducing members 4 1, 4 2 Protruding heat transfer portions 4 ia and 42 a are formed on the opposite sides, and the respective recesses between the heat transfer portions 41 a and 42 a are made of a plastic material that is difficult to transfer heat.
  • a heat insulating portion 43 is fitted.
  • the tips of 4 14, 4 2 a of each ripening section are formed on a slope 44, and the heat introducing member 41 is not movable in the vertical direction by a guide member (not shown). When the introduction member 41 is moved to the left in the figure, contact with the rain heat transfer portions 41a and 42a is ensured.
  • FIG. 6A shows a state in which the heat transfer section of one member is in contact with the heat insulation ⁇ 43 of the other member. In this state, the heat transfer section ⁇ ⁇ is insulated between the members 41, 42. Since the part 43 is interposed, no heat conduction occurs between the two heat introducing members.
  • FIG. 6B shows a state in which the heat introducing member 41 slides in the left direction in the figure. In this state, the heat transfer portions 41 a and 42 a of the heat introducing members 41 and 2 are in this state. Are brought into contact with each other, so that heat conduction occurs between the two heat conducting members 41 and 42.
  • the mature introduction member 41 may be moved by an electric motor, or may be moved manually or via a lever as appropriate.
  • the heat transfer sections 4 la and 42 a and the heat insulation section 43 are made substantially the same as the heat transfer section and the heat insulation section in order to facilitate understanding.
  • the heat transfer portions 4 ia and 42 a can be increased to increase the heat transfer between the heat transfer portions 4 la and 42 a.
  • the heat insulating material filled in the heat insulating portion 43 is inserted into the rain heat introducing members 4 la and 42 a in order to reduce the convection of the air between the rainy people in the distant places.
  • the above-described heat introduction members 41 and 42 can be provided not only on the ceiling of the second container 1 ⁇ but also on the arbitrarily wall surface.In this case, the cold air heat transfer device 20 shown in FIG. 2 is omitted. it can.
  • Fig. 7 shows another example of the control device.
  • the difference from the example of Fig. 4 is that the main control device 40 is omitted and the functions of the main control device 40 are described in detail. That is, the cooling operation control device 15 'of the second container 1 is provided.
  • FIG. 8 shows the circuit diagram of FIG.
  • Each cooling control device 15 ' is constructed using a microcomputer (MP) and works as follows according to the built-in program.
  • MP microcomputer
  • the cooling inversion control device 15 of one second container 1 ⁇ A cools each of the other two second containers 1 ⁇ 1 l B B and 1 l C C).
  • a data request signal for the internal temperature is sent to the operation control device 15 '.
  • the respective internal chamber temperatures are sent to the second container 11'A.
  • the cooling operation control device 15 ′ of the second container 1 ⁇ A compares its own internal temperature with the other two internal recharges, and determines the urgency of the cooling operation of the second container 11 ′ A. When it is determined that the temperature is the highest, it outputs a start signal for starting its own cooling device 14.
  • the second container 1 ⁇ or 1 ⁇ Cooling operation controller to £ 5 vs C Send a start signal to 15 '.
  • the first second 3 inch burner 1 gamma is ⁇ a predetermined time to start cooling, than the 23 Nchina 1 gamma cooling operation control instrumentation of A S15 ', then the emergency cooling operation
  • the start signal is also sent to the second unit 1 that has a higher frequency, and the start signal is sent to the last second container 1 if a predetermined time is appropriate.
  • FIG. 9 shows still another embodiment of the control device, which is different from the working example shown in FIG. 4 in that the main control device 40 shown in FIG.
  • Each of the second containers 11 ' is controlled by the cooling control device 6'.
  • FIG. 10 shows an image path diagram of FIG. 9, and the control operation is the same as that of the first embodiment, so that the description is omitted.
  • cooling devices 6, 6 were hired for the first container, and the cooling device 14 was hired in the second container 1 li i 1 '.
  • the first container cooling device 6, 6 ': a waterfall that cools or heats the inside of the container is installed, and the second container cooling device is used.
  • Cooling device in container 1 1 ⁇ instead of 14, there is a device equipped with a temperature control device to cool or heat the inside of the container.
  • the temperature control device provided in the second container should be constructed by using various thermoelectric elements exhibiting a cooling effect or a heating effect, in addition to the one using a Peltier element. Can be done. Note by changing the came direction of the current flowing through the element when Peruchu device was also used, cooling is convenient Usage since both heating effect. Can be easily selectively performed e
  • the temperature in the second container is lower than the temperature in the first container ⁇ , but the temperature in the second container is set higher than the temperature in the first container
  • the temperature in the first container is 1-18.
  • C, 2nd container 11 1 'a, 1 ⁇ b, 1 l' c The temperature of each 1-5. C, 0 ° C, 10.
  • the second cooling device 14 may be simply replaced with a heater.
  • the second container having a smaller volume than a generally used container (referred to as the first container in the present invention). Since cold or frozen goods can be sent in China,
  • the composite container according to the present invention in which the first container accommodates a plurality of second containers can set the temperature inside the second container to a predetermined different temperature, so that each of the composite containers has a different temperature. Many types of articles that require cooling can be transported simultaneously.
  • the temperature outside the second antenna is controlled by the temperature control device of the i-th container.
  • the temperature difference between the outside temperature and the part of the second container can be reduced, so that the temperature control device provided in the second container is Adjust the temperature of the second container ⁇ within a small temperature control range.

Abstract

This invention relates to a cold insulating container used to transport cold-stored or refrigerated foods, and more particularly to a compound container comprising a large first container (1') provided with a temperature control device (6), and small second containers (11') each housed in the first container and provided with a temperature control device (14) and cooling and heating operation controller (15) and housing therein objects to be transported, a temperature control device (14) housed in each of the second containers (11') being controlled in accordance with the cooling and heating operation control signals sent thereto and being operated from a cooling and heating power source the current from which is supplied from the side of the first container (1') thereto through a power source current supply line.

Description

^ 細  ^ Fine
発明の名称 Title of invention
複合コ ンテナ  Composite container
技術分野 Technical field
本発明は、 物品の輸送に用いるコ ンテナに関し、 特に大型のコ ン テナ内に小型のコ ンテナを収納してなる複合コ ンテナおよび複合コ ンチナを用いた輪送方法に関する  The present invention relates to a container used for transporting goods, and more particularly to a composite container in which a small container is housed in a large container and a method of transporting the composite container.
背景技術 Background art
近年、 冷蔵もしくは冷凍食糧品等の輸送のために、 保冷コ ンチナ が £く使用されている。 このコ ンテナは、 断熟保温壁材を用いた匿 体にてなり、 内部を冷蔵あるいは冷凜するための冷却装置を備える。 一般的な使用例としては、 まず、 冷蔵もしく は冷凍庫内より取り出 した輸送物品をコ ンテナに収納し、 そのコ ンテナを、 保冷コ ンテナ 専用の トラ クに搭載し、 該トラ ックに傭えている電籙設備により、 コンテナの冷却装置に電力を洪耠して翰送中においても冷却運転を 行う β 積み出し卷に蓊けば、 コンテナを トラックからコ ンテナ船に 積み替え、 今度はコンテナ船から洪耠される電気により引き読き冷 却運転を行う。 航路にて輸送されたコ ンテナは、 目的地の港で再び 電源設備を有するコンテナ専用のトラックに積み込まれ消費地へ濡 けられる。 In recent years, insulated containers have been used to transport refrigerated or frozen foods. This container is made of an insulated body using heat-insulated wall material and has a cooling device for refrigeration or cooling the inside. As a general example of use, first, the transported goods taken out of the refrigerator or freezer are stored in a container, and the container is mounted on a truck dedicated to the cold storage container. Depending on the electrical equipment we have Flood power to the cooling system of the container and perform cooling operation even during transmission.If the container is loaded on the β loading reel, the container is reloaded from the truck to the container ship, and this time it is pulled by the electricity flooded from the container ship. Read and perform the cooling operation. Containers transported along the sea route will be loaded again on a container-only truck with power supply facilities at the destination port and wetted to the consumption area.
ところで、 コンテナを船舶に積み下ろしするコンテナヤー ドにお いて、 トラ ツクで输送されてきたコ ンテナをコンテナ船に積み込む まで、 あるいは、 コ ンチナ船で輸送されたコ ンテナを ト ラ ッ クに積 み込むまで、 半日ないし二日程度保管されることがあるが、 この聞 にも冷却を行う必要があり、 そのため、 コ ンテナヤー ドにはコ ンテ ナに電気を供給するための電源設備が必要である。  By the way, in a container yard for loading and unloading containers on a ship, containers transported by truck are loaded on the container ship, or containers transported by container ship are loaded on the truck. It may be stored for half a day or two days until it is plugged in.However, it is necessary to cool it, so the container yard needs power supply equipment to supply electricity to the container .
ところが、 通常用いられているコンチナの寸法は、 断面が 8 X 8 フィー トで長さが 2 Qフィー トあるいは 4 0フ ィー ト もあり、 この ような大容積のコンテナに対し十分な冷却が行えるように、 比較的 大能力の冷却装置が傭えられている。 そのために、 該冷却装 ¾に供 袷できる大容量の電源設備を itえたコンテナヤー ドでしかコンテナ を扱うことができず、 輸送航路の変更といったことも起こり得た。 又、 陸上輸送に際しても、 大容量の電源を傭えた保冷コ ンテナ專 用のトラ ' yクでしか運搬できず、.又、 大型でかつ重量の大きいコ ン チナにて消費地まで運搬しなければならないため効率の良い輸送が 行えなかった。 更には、 コ ンテナ内に物品を直接^納するため、 収 納する物品によっては、 使用後コンテナ內の洗浄や脱臭等の作業を 必饔とし、 そのためにコ ンテナの稼動率は低下した。 However, the dimensions of a commonly used container have a cross section of 8 x 8 feet and a length of 2 Q or 40 feet, and sufficient cooling is required for such large-volume containers. In order to be able to do so, relatively large capacity cooling equipment is hired. For this purpose, the cooling equipment Containers could only be handled in container yards that had large-capacity power supply equipment that could be lined up, and changes in transportation routes could occur. Also, when transporting by land, it can only be transported by trucks dedicated to insulated containers that use large-capacity power sources, and must also be transported to consumption areas using large and heavy containers. Efficient transportation was not possible. Furthermore, since goods are stored directly in the container, depending on the goods to be stored, it is necessary to clean and deodorize the container 後 after use, and the operation rate of the container has decreased.
本発明の目的は、 上述したコ ンテナ輸送における制約をなく し、 輸送効率をも髙めた複合コンテナを提供することにある。 発明の開示  An object of the present invention is to provide a composite container which eliminates the above-described restrictions on container transportation and improves transportation efficiency. Disclosure of the invention
この発明の複合コンテナは第 1 の大型コ ンテナ及び第 1のコ ンテ ナ內に収容される小型の第 2のコンテナよりなり、 前記.第 1 ¾ぴ第 2のコ ンテナは、 断熱保温壁材にてなり、 かつ內部を冷却又は加熱 する' 度調節装置を婧えたことを特徵とする。 この発明の複合コンテナにおいては第 2のコンテナは、 第 2のコ ンテナの外部の熱を第 2のコンテナ内に ί云える伝違手段を癎えたこ とを特徵とする。 · The composite container of the present invention comprises a first large container and a small second container housed in the first container, wherein the first and second containers are insulated heat insulating wall materials. And a temperature control device for cooling or heating a part of the device. In the composite container of the present invention, the second container is characterized in that it has a transmission means for transmitting heat outside the second container into the second container. ·
この発明の複会::ンチナは各第 2のコンテナ内の温度を捨出する 温度検知器と、 葸¾検知器で検出された各第 2コ ンテナ内の検出温 度を目標温度と比較して、 検出温度と目標温度との差が大きい第 2 コンテナの温度調節装置を起動させるための ί言号を送出する剖御装 鼈とを婧ぇたことを特豫とする。  Compounding of the invention:: Anchina discards the temperature in each second container, and 葸 ¾ compares the detected temperature in each second container detected by the detector with the target temperature. A special feature is that a tortoise tortoise that transmits a symbol for activating the temperature control device of the second container having a large difference between the detected temperature and the target temperature is provided.
この発明の複合コンテナを用いた搬送方法は第 1のコンテナ及び, 第 1 のコ ンテナ内;こ収容される複数の第 2のコ ンテナよりなり、 前 記第 1及び第 2のコ ンテナは、 断熱保温壁材にてなり、 かつ内部を 冷却又は加熱する温度調節装置を IIえた複合コンテナを使用し、 輸 送物品を収納した第 2のコ ンテナを第 1 のコ ンテナに収容した抆態 で搬送することを特徵とする。  The transport method using the composite container of the present invention comprises a first container and a first container; a plurality of second containers to be accommodated therein, wherein the first and second containers are: Using a composite container made of insulated heat insulating wall materials and equipped with a temperature control device that cools or heats the inside, the second container containing transported goods is housed in the first container. It is characterized by being transported.
この発明の複合コンテナは、 第 iのコ ンテナ及び第 1 のコ ンテナ 内に収容される複数の第 2のコ ンテナよ り なり、 前記第 2のコ ンテ ナは、 断熱保温壁材にてなり、 かつ内部を冷却又は加熟する籙置 ¾ 備えた複合コ ンテナを使用し、 輸送物品を収納した第 2のコ ンテナ を第 1 ©コ ンテナに収容した栻 Iで襯送することを'祷徵とす 。 図面の簡単な説明 The composite container according to the present invention comprises a plurality of second containers housed in the i-th container and the first container, and the second container The container used was a composite container made of insulated and heat-insulating wall material and equipped with a device to cool or ripen the inside.The second container containing the transported goods was stored in the first container ©徵 Sending a message with I is called a prayer. BRIEF DESCRIPTION OF THE FIGURES
第 1図は、 第 1の発明の複合コ ンチナの 1実施例を示す靳面図、 第 2図は、 この発明の他の実施例を示す断面図、 第 3図は、 第 2図 の側断面図、 第 4図は、 第 2図における各装置の電気接続を示す平 面図、 第 5図は、 第 4図の詳細を示す回路図、 第 6 A図及び第 6 B 図は、 第 2図における冷気伝熟装置の钊の実旌例を示す部分拡大斷 面図、 第 7図は、 この発明のさらに他の実施例を示す各装,蠹の鸳気 接銃を示す平面図、 第 8図は、 第 7図の詳細を示す回路図、 第 9図 は、 この発明のさらに他の実旖例を示す各装置の電気接続を示す平 面図 筝 1 0図は、 第 9図の詳細を示す回路図である。 実旛例 第 1図は本発明の複合コンテナの一実施例を示している。 1は、 たとえば従来の船舫による锒送に用いられるコンテナと同様寸法の 大きさの大型の第 ·ί コンテナであり、 新定の強度を有する 轲 2で 概 長方形状の箧体で構成される。 3は、 第 1 ンテナ iの長手方 向の一方端に人竽により開閉可能に設けられた扉である。 FIG. 1 is a front view showing one embodiment of the composite container of the first invention, FIG. 2 is a cross-sectional view showing another embodiment of the present invention, and FIG. 3 is a side view of FIG. FIG. 4 is a cross-sectional view, FIG. 4 is a plan view showing the electrical connection of each device in FIG. 2, FIG. 5 is a circuit diagram showing details of FIG. 4, FIG. 6A and FIG. FIG. 2 is a partially enlarged cross-sectional view showing an example of the cold air transfer device shown in FIG. 2; FIG. 7 is a plan view showing the air gun of each device and allocation showing still another embodiment of the present invention; FIG. 8 is a circuit diagram showing details of FIG. 7, and FIG. 9 is a plan view showing electric connections of respective devices showing still another embodiment of the present invention. FIG. 3 is a circuit diagram showing details of the embodiment. Actual example FIG. 1 shows an embodiment of the composite container of the present invention. 1 is a large No. 1 container of the same size as a container used for transport by a conventional ship, for example, and has a new fixed strength. . Reference numeral 3 denotes a door provided at one end in the longitudinal direction of the first antenna i so as to be opened and closed by a human.
4は、 第 1 ンテナ 1の床面 2 z上にコンテナ 1 の長手方向、 即 *靡3か こ©^ 3 ¾向チる壁2 4に向か15方1¾に¾¾す- ょ に設けられたレールである》 4, the longitudinal direction of the container 1 to the first antenna 1 of the floor on 2 z, Soku *靡three this © ^ 3 to ¾¾ to ¾ Kochiru wall 2 4 suited 1 5-way 1¾ - provided Yo It is a rail that was
1 1は、 方形^の筐体にてなる第 2コ ンテナであり、 本 施例で は、 第 1コンテナ 1內に該第 1コンテナ 1の長手方向に 3個を平行 に ぺて収容できるような寸法を有する。 この第 2 ンテナ 1 1は、 断熱保温材料を用いた壁材 1 2にて構成され、 該第 2コンテナ 1 1 の一方側には物品の収鈉時に開閉する扉 1 3が設けられ、 該第 2コ ンテナ 1 1の上記扉 1 3と対向する側の壁 1 2 aには、 冷却装置 1 4が設けられる β この冷却装置 1 4は、 ペルチュ効果を用いた電子 冷却装置であり、 電子冷却素子 1 4 aと、 第 2コ ンテナ内に位置し、 電子冷却素子 1 4 aの吸熱面に当接する吸熱フィ ン 1 4 b、 及び苐 2 コンテナ外に位置し、 前記電子冷却素子 1 4 aの放熱面に当接する 放熱フイ ン 1 4 cを有す。 尚、 冷却装置 i 4としては、 圧赣器,凝 縮器 び蒸発器等よりなる通常の冷却装 gを用いてもよい。 1 5は、 冷却運転制御装置であり、 温度を検出するたとえばサ—ミ スタで構 成された温度検知器 1 6よりの検出信号に従って前 S3冷却装置 1 4 を制御する。 1 7は、 冷気を対流させる円筒状のフ τ· ンであり、 1 8は、 商用電源を、 冷却装置 1 4の駆動電圧である直流例えば 2 4 Vに変換する霄 制御装置である。 第 2 3ンテナ 1 1の下面には面 動自在の車輪 1 9が設けられており、 その車輪 1 9部分がレール 4 上に回勳するように戴置され、 第 2コンテナ 1 1それぞれはレール 4上を移動して第 1 コ ンテナ 1から出し入れきれる構成となってい る β Reference numeral 1 denotes a second container formed of a rectangular casing, and in this embodiment, three containers can be accommodated in the first container 1 內 in parallel in the longitudinal direction of the first container 1. It has various dimensions. The second container 11 is composed of a wall material 12 using a heat insulating and heat insulating material, and a door 13 is provided on one side of the second container 11 for opening and closing when collecting articles. (2) A cooling device (14) is provided on the wall (12a) of the container (11) on the side facing the door (13) .β The cooling device (14) is an electronic cooling device using the Pelchu effect, Element 14a, located in the second container, Heat-absorbing fins 14b that contact the heat-absorbing surface of the electronic cooling element 14a, and heat-radiating fins 14c that are located outside the container and that contact the heat-radiating surface of the electronic cooling element 14a. . As the cooling device i4, a normal cooling device g including a compressor, a condenser, and an evaporator may be used. Reference numeral 15 denotes a cooling operation control device, which controls the preceding S3 cooling device 14 in accordance with a detection signal from a temperature detector 16 composed of, for example, a thermistor for detecting a temperature. Reference numeral 17 denotes a cylindrical fan for convection of cold air, and reference numeral 18 denotes a Xiao control device for converting a commercial power supply into a DC voltage, for example, 24 V, which is a drive voltage of the cooling device 14. The lower surface of the 23rd antenna 11 is provided with wheels 19 which can move freely. The wheels 19 are mounted on the rail 4 so as to be turned around, and each of the second containers 11 is a rail. 4 move the top that has become out cut off the configuration from the first container 1 β
又、 5は、 第 1 - ンテナ 1の 1つの壁 2に固定した電源接続箱で あり、 メイ ンコネクタ 5 aを してコンテナ船等より供袷を受けた ¾気を、 分岐コネクタ 5 bを介して各第 2コンチナ 1 1內の冷却装 g l 4及ぴフア ン ϊ 7に供铪する。 更に、 第 1 コンテナ 1 の倒壁等 には、 第 2コンテナ 1 1からの放熱を外部に逃すための適当な熱換 気口あるいは換気覇 (不図示)等が設けられている。 Reference numeral 5 denotes a power supply connection box fixed to one wall 2 of the first antenna 1. The power supply connection box is provided with a main connector 5a to receive air supplied from a container ship or the like, and a branch connector 5b. Through each 2nd continer 1 1 チ cooling equipment Supplied to gl 4 and fan 7. Further, on the fall-down wall of the first container 1 and the like, there are provided appropriate heat exchange ports or ventilation holes (not shown) for releasing heat radiation from the second container 11 to the outside.
次に上記複合コンテナの使用伊 Iを以下に述ぺる。  Next, the use of the composite container I will be described below.
扉 1 3を開いて冷蔵もしくは冷凍されている輸送物品を第 2 =ン テナ i iに収納して第 2コンテナ 1 1単体でトラツク等に積み、 轅 送する 0 この第 2コンテナ 1 1の冷却装置 1 4の冷却能力は、 比 I 的に小きく大容量の電灞を必要としないことから、 一般のトラツク に搭載し、 該トラックの直流€薅からの電気の供給により冷却運転 も行いつつ輸送可能である。 第 2コ ンテナ 1 1が積み出し港等に搬 送されれば、 次に第 1 コンテナ 1の扉 3を開いて例えば 3個の第 2 - ンテナ 1 ίを第 1 コ ンチナ 1のレ ル 4に載せて移動して 3偭の 第 2コンテナ 1を第 1コンチナ 1內に並べて収容する。 そして各 第 2コンテナ 1 1を各分舷コネクタ 5 bにより電源接続箱 5に接続 する。 そして、 この第 1 コンテナ 1をコンチナ船に積み込み、 前記 電頹接繞箝 5をメインコネクタ 5 aを介してコンテナ船の電源に接 铳する とにより、 第 i sンテナ 1内の各第 2 コ ンテナ 1 1 は冷却 運転を開始する。 Open the door 1 3 and store the refrigerated or frozen transport goods in the second container ii, load the second container 1 1 on a truck or the like by itself, and send it to the ship.0 Cooling device for this second container 11 The cooling capacity of 14 is relatively small and does not require large-capacity electricity, so it is mounted on a general truck and transported while supplying cooling power from the truck's DC power supply. It is possible. When the second container 11 is transported to the loading port or the like, the door 3 of the first container 1 is then opened and, for example, three second-containers 1 ί are placed on the rail 4 of the first container 1. The container is moved and placed on the 3 偭 second container 1 side by side with the 1st container 1 內. Then, each second container 11 is connected to the power supply connection box 5 by each branch connector 5b. Then, the first container 1 is loaded on a container ship, and the electric connection gag 5 is connected to the power supply of the container ship via the main connector 5a. As a result, each second container 11 in the is container 1 starts the cooling operation.
一方、 前記積み出し港にて、 コンテナ船の積み出しまでしばらく 保管される場合には、 各第 2コンテナ 1 1 は、 その保管中において も冷却運転が行なわれるが、 その際、 商用電源も各第 2コ ンテナ 1 1の霄源制御装置 1 8により変換した直流でもって冷却運転が行な われ、 それ故、 積み出し港においてもコ ンテナの S動電滅としての 大容量の電源設備を必要としない。  On the other hand, when the container is stored at the loading port for a while until the container ship is unloaded, the cooling operation of each second container 11 is performed even during the storage. The cooling operation is performed by the DC converted by the Xiaoyuan control device 18 of the container 11, and therefore, a large-capacity power supply equipment is not required even at the port of loading as the S dynamism of the container.
さて、 航路にて輸送されたコンテナは、 目旳地の港でコンテナ船 より第 1 コ ンテナ 1が積み下ろされ、 更に第 1 コンテナ 1内から取 り出された第 2 コ ンテナ 1 1は、 前逑と同様に一般のトラ ックにて 輸送可能である 0  By the way, the container transported by the sea route is to be unloaded at the port at the destination, where the first container 1 is unloaded from the container ship, and the second container 11 taken out from the first container 1 is Can be transported on ordinary trucks as well as forehead 0
上逑のごとき第 2 コ ンテナ 1 1を用いれば、 従来のコ ンテナに電 隳接辕箱 5や熱換気口等を具備することで冷蔵あるいは冷凍物品を 襯送することができる。  If the second container 11 such as an upper container is used, a refrigerated or frozen article can be sent by providing the conventional container with the connection box 5 and the heat vent.
第 2図は、 複合コ ンテナの第 2の実施例を示しており、 第 1図と 同一の部分には同一の符号を付している。 尚、 以下の.図面において も同一符号を付したものは同一の機能を果たすものとする。 FIG. 2 shows a second embodiment of the composite container. The same parts are denoted by the same reference numerals. In the following drawings, the same reference numerals denote the same functions.
第 1図に示したのと同様の大型の第 1 コンテナ の罪 3に対向 する側の壁面 2には ISコンチナ 1 'を冷却する第 1の冷却機構を備 えて,いる。 上記筐体を構成する壁 2と扉 3とは断熱構遣材料によつ て構成されており、 扉 3が閉じられるとコ ンテナ 1の內部空気と外 気藺は断熱され、 コンテナ 1の内部は断熱保温状態に維持きれる構 成となっている。 上記第 1の冷却機構 6は、 庄箱晷、 凝縮罌、 およ び蒸発篛等から構成される通常用いられる冷却機構であり、 その冷 却対象となる第 1 3ンテナ 1内の空間が aいので冷却性能が大であ り、 大きな駆動電源を要するものである。  The wall 2 on the side facing the sin 3 of the large first container similar to that shown in Fig. 1 is provided with a first cooling mechanism for cooling the IS container 1 '. The wall 2 and the door 3 that make up the above housing are made of a heat-insulating material.When the door 3 is closed, the outside air and the outside air of the container 1 are insulated, and Has a configuration that can be maintained in an adiabatic and insulated state. The above-mentioned first cooling mechanism 6 is a commonly used cooling mechanism composed of sho box 晷, condensed poppy, evaporating 篛, etc., and the space in the 13th antenna 1 to be cooled is a Therefore, it has high cooling performance and requires a large drive power supply.
又、 第 2 ンテナ 1 Γには、 第 1 コンテナ Γ內の冷気の温度を 該第 2コンテナ内に伝えるための冷気伝熱装置 2 0が設けられてい て、 乙の冷気伝熱装置 2 0を第 S図の側断面図を参照して説明する- 第 2コ ンテナ 1 1 'の両側壁面 1 2 yの上部斩定部に開口 2 0 aが 設けられ、 両開口 2 0 a間を挿通するようにし'て熱伝導性の良い材 '質にてなる: 3の字型のダク ト 2 Obが設けられていて、 該ダク ト 2 Obにより通気路 2 Oeが形成される。 両開口 20 aには該開口 2 を開閉する電動式のシャ ター 20cが設けられ、 そして、 上記:! 気路 2 Oe内で一方のシャッタ一 2 Oeの近傍には冷気吸い込み用の フプ ン 2 Odが設けられる。 更に、 ダク ト 2 Obの下面に密着して、 幅広の熱交換ブレート 2 1が設けられる。 Further, the second antenna 10 is provided with a cool air heat transfer device 20 for transmitting the temperature of the cool air of the first container に into the second container. Explanation will be given with reference to the side sectional view of FIG.S- An opening 20a is provided in the upper set portion of both side walls 12y of the second container 11 ', and the opening between the two openings 20a is inserted. Material with good thermal conductivity 'Composed of quality: A 3-shaped duct 2 Ob is provided, and the duct 2 Ob forms an air passage 2 Oe. Both openings 20a are provided with electric shutters 20c for opening and closing the openings 2, and In the air passage 2 Oe, a fan 2 Od for sucking cool air is provided in the vicinity of one shutter 12 Oe. Further, a wide heat exchange plate 21 is provided in close contact with the lower surface of the duct 2 Ob.
そして上 32シャツタ 20cが通択的に開かれるのに連動して通気 用ファ ン 2 Odが動作し、 通気路 20 e内を第 1 3 ンテナ 1 '内の空 気が流勤し、 その際流動空気の持つ熱(冷熱)がダク ト部材 2 O bと プレー ト 2 1を介して第 2コンテナ 1 1,内に与えられるようになつ ている。  In conjunction with the selective opening of the upper shirt 20c, the ventilation fan 2 Od operates, and the air in the third antenna 1 'flows into the ventilation path 20e, and at that time, The heat (cold heat) of the flowing air is supplied to the second container 11 via the duct member 2Ob and the plate 21.
上杞の冷気伝熱装置 20による第 2コンテナ 1 Γ 内への熱の取 り入れは、 第 1 コンテナ Γ內が所定溫度以下に冷却されている際 にその冷熱を第 2コ ンテナ 1 Γ内に取り入れるように行うもので ある。 これに対して、 'ンャッタ 2 O aが閉じるとともに通気用ファ V 2 Odが停止することにより第 2コ ンテナ 1 1 'の内部と外部間の 伝熱は遮断ざれるもので、 第 1コンテナ 1 '内から第 2コ ンテナ 1 Γを取り出した際に第 2 3ンチナ 1 Γ內に外部の暖気が侵入する ことを阻止し、 第.2コ ンテナ 1 Γの保温状態が維持されるように . な ている。 Heat is taken into the second container 1 に よ る by the cold air heat transfer device 20, when the first container 冷却 is cooled to a predetermined temperature or less, the cold heat is transferred to the second container 1 Γ. This is done so that On the other hand, when the cutter 2 Oa closes and the ventilation fan V 2 Od stops, the inside and outside of the second container 11 1 Heat transfer is obstructed, so that when the second container 1 か ら is taken out of the first container 1 ′, it prevents external warm air from entering the second container 1 、, The heat of the antenna is maintained so that it is maintained.
上 S5 'ンャ . タ 2 O aの開閉は、 霉勤操作や手動操作により行って もよいが、 第 1 コンテナ 1內の温度が低下して所定 ©'虽 gに達した 際に'ンャ , タ 2 O aが開くように新定の形状に変形する形状記憶合 金を利用して行うようにすれば便利である。  Opening and closing of the upper S5 container 2 O a may be performed by work or manual operation, but when the temperature of the first container 1 drops and reaches a predetermined value of © g, the container is opened. It is convenient to use a shape memory alloy that deforms to a new fixed shape so that the data 2Oa opens.
以下上記第 2図と第 3図に示した実旌例における作用を銳 する。  Hereinafter, the operation in the actual example shown in FIGS. 2 and 3 will be described.
(A )第 2 ンチナ 1 1 'を第 i コ ンテナ 1 'に収納してコンテナ船-や コンテナ専用ト ラ ック おける収納物品を狳送する際に第 1 コ ンテ- ナ の第 1の冷却機構 6及び第 2コンテナ 1 Γの第 2の冷却攆構 1 4が駆動きれているときには、 'ンャッタ 2 O aが開かれるととも に通気用ファン 2 O dが動作して、 第 1コンテナ Γ內の冷気が通気 路 2 O e內を流動する。 これによりブレート 2 ίを介して冷熱が第 2コンテナ 1 Γ內に導入される。 それ故、 第 2コンテナ 1 內は、 第 2の冷却機構 1 4による冷却に加えてブレート 2 1 によっても冷 熟を与えられるので冷蔵もしくは冷凍のため強力に冷却され、 と く に冷却の開始時には第 2 ンチナ 1 Γ内は急: ¾に冷却される。 冷 却状態が安定した段階においては、 第 2の冷却機構 1 4を停止もし くは不違銃に駆動するようにしてもよい。 (A) The first cooling of the first container when the second container 11 'is stored in the i-th container 1' and the goods stored in the container ship or the container truck are transported. When the mechanism 6 and the second cooling mechanism 14 of the second container 1 are completely driven, the shutter 2Oa is opened and the ventilation fan 2Od is operated, so that the first container The cool air of 內 flows through the air passage 2 O e 內. Thereby, cold heat is introduced into the second container 1 ί through the 2 ブ plate. Therefore, the second container 1 內 In addition to cooling by the second cooling mechanism 14, cooling is also provided by the plate 21, so that it is cooled strongly by refrigeration or freezing, and especially at the start of cooling, the inside of the second container 1 急 is sudden: ¾ Is cooled. At the stage where the cooling state is stabilized, the second cooling mechanism 14 may be stopped or driven by an intact gun.
上記の(A〉の状態において第 1 コ ンテナ 1 '內から第 2 コ ンテナ 1 Γ内に冷熱を導入する状態においても、 第 1 コンテナ 1 '内空間 と第 2コンテナ 1 Γ內空閱とが違通する状態は形成されず、 した がって第 2 コ ンテナ 1 1 '內の収枘物品による汚れや具いが第 1 コ ンテナ Γ内に及ぶ恐れは全くない。  Even in a state where cold heat is introduced from the first container 1 ′ Γ into the second container 1 に お い て in the state (A) above, the space inside the first container 1 ′ and the second container 1 第No breach condition is formed, and therefore, there is no danger that dirt or tools from the collected articles of the second container 11 ′ ′ will reach the first container.
( B )コンテナヤー ドがなくて第 1のコンテナ の第 1の冷却装置 6を駆勤するに必要な大型電縴設備を備えない港に保管される場合 や、 ンテナ専用でないトラ ックで輸送される場合は、 上記第 1の コ ンテナ 1 'の扉 3を開いて第 2 コ ンテナ 1 1 'が第 1 コ ンテナ 1 ' 外部に出される。 そ して第 2 コ ンテナ 1 の第 2の冷却機樣 1 が IS動されて内部の収納物品の冷却がなきれる。 上 IBにおいて、 第 2の冷却機構 1 4の IS動筲篛としては、 港に保管される場合は S 用コ ンセント電洱(A C )を使用し、 電源制铒装 S 1 8により直流に 変換して電子冷却素子 1 4に動作電力を与える。 またトラツク輸送 の場合は例えば 2 4 V ©ト ラ ックのコンセント電瀕(D C )を使用す る。 (B) Stored in a port that does not have a container yard and does not have the large electrical equipment required to drive the first cooling device 6 of the first container, or transported by truck that is not dedicated to antennas In this case, the door 3 of the first container 1 'is opened, and the second container 11' is taken out of the first container 1 '. Then, the second cooling mechanism 1 of the second container 1 is operated by the IS to stop cooling the internal storage items. In the upper IB, As the IS operation of the second cooling mechanism 14, when it is stored in a port, an outlet for AC power (AC) is used, and it is converted to direct current by the power supply control S 18 to be electronically cooled. Apply operating power to element 14. In the case of truck transportation, for example, use a 24 V © truck power outlet (DC).
この場合はシヤッタ 2 0 aは閉じられるとともに通気用フア ン 2 . O dが停止され、 第 2 コ ンテナ 1 1 '内に外部からの暖熱が入ること が防止されて、 第 2の冷却機構 1 4による冷却性能が損なわれない ようになつている。  In this case, the shutter 20a is closed, the ventilation fan 2.0d is stopped, and external warming is prevented from entering the second container 11 '. The cooling performance of 14 is not impaired.
この種の複合コンテナにおいて、 各第 2のコンテナ 1 Γそれぞ- れの冷却機 1 4の運転用電源としては、 大型第 1 コンテナ 1 '内に 設けた電源分岐箝 5から分岐して 12匿される電瀛供耠ライ ンを介し て与える。 しかしながら例えば各第 2コ ンテナ 1 1 'の冷却機構 1 4の起動が同時に行なわれる場合には電露の容量不定をきたして、 コンテナ內に収納された積載钧の冷却が十分に行なわれなくなる事 態が生ずる。 これを防止するために互いに異なる時刻に各第 2コンチナの冷却 機構 i 4を起動する。 このような各冷却機構 1 4の起動を行う制御 装置について以下 説明する。 In this type of composite container, the power supply for operating the cooling device 14 of each of the second containers 1 分岐 is branched from the power supply branch gag 5 provided in the large first container 1 ′ and 12 concealed. Given via the electronic supply line. However, for example, if the cooling mechanism 14 of each second container 11 'is started simultaneously, the capacity of the electric dew will be uncertain, and the loading of the load stored in the container will not be sufficiently cooled. State arises. In order to prevent this, the cooling mechanisms i4 of the respective second continers are activated at different times. A control device for starting each of the cooling mechanisms 14 will be described below.
第 4図は、 第 2図における各装置間の電気接铳を示した平面図で ある。 コネクタ 5 aを介し: ίンテナ船等より電気の供辁を受ける霉 カ供辁ライ ン 3 1には、 既述した冷却装置 6及び主制御装置 40が 接铳されるとともに、 分岐コネクタ 32を介して各第 2コ ンテナ 1 1 'の冷却装置 1 4 , ¾却運転制御装置 15が接銑される。  FIG. 4 is a plan view showing electrical connections between devices in FIG. Via the connector 5a: The cooling system 6 and the main control unit 40 described above are connected to the power supply line 31 that receives power supply from the container ship, etc. The cooling device 14 and the cooling operation control device 15 of each second container 11 'are connected to the second container 11'.
第 4図と第 5図を参照して第 1コ ンテナ用冷却機 6'には共逼コネ クタ' 5 aを介して冷却運耘 電力が供辁される。 共通電力供辁ラィ ン 3 1は、 各小型の第 2コンテナ 1 1 l'b, 1 l 'cに対応して 設けられた偭刖 -ネクタ 32 a, 32 b, 32 cにそれぞれ接読きれて いる。 各第 2コ ンチナ用冷却機 1 4a, 1 b, 1 4cのそれぞれは、 個别電力供袷ライ ン 3 1 a, 3 lb, 3 1 eを介して对応する各個別コ ネクタ 32a, 32b, 32cに接続されている。 小型コ ンテナ用冷却 機 14 a, 1 4 b, 14 eに与えられた電力の一部は対応する冷却運転 制御部 15a, 1 5b, 1 5 δの駆動電力として用いられる。 共通電力 供耠ライン 3 1には、 そのライン 3 1間に挿入されたコン-デンサ C 1と各ライン 3 Iに直列に撣入された 2儸のコイル L 1 とか なる 電源フィルタ回路 33が設けられている。 Referring to FIGS. 4 and 5, the cooling power for the first container is supplied to the cooling device 6 'for the first container via the co-tight connector' 5a. The common power supply line 31 can be read and read by the ネ -connectors 32a, 32b, 32c provided corresponding to the respective small second containers 11 l'b, 1 l'c. ing. Each of the second container coolers 14a, 1b, and 14c is connected to an individual connector 32a, 32b corresponding to the individual power supply line 31a, 3lb, 31e. , 32c. Part of the electric power supplied to the small container coolers 14a, 14b, 14e It is used as drive power for the control units 15a, 15b, 15δ. The common power supply line 31 is provided with a power supply filter circuit 33 composed of a capacitor C1 inserted between the lines 31 and two coils L1 inserted in series with each line 3I. Have been.
各偭别電力供耠ライ ン 31 a, 3 lb, 3 1 cと各冷却運転制御部 1 5 a, 15 b, 1 5eとの間には冷却運転用電力を遮断して後述の制御 信号やデータを取り出す制御信号ライ ン 34 a, 34 b, 34 cがそれ ぞれ接鶴されている。 また、 共通電力供給ライ ン 3 1と主敏蘅装蠹.  The cooling operation power is cut off between each power supply line 31a, 3lb, 31c and each cooling operation control unit 15a, 15b, 15e to control signals and The control signal lines 34a, 34b, and 34c for extracting data are connected to each other. In addition, the common power supply line 31 and the chief alert allocation.
0との間には制御信号ライン 34eがそれぞれ接銃きれている, これら制铒ライン 34 a, 34 b, 34 c, 34 eのそれぞれには、 冷却 運転用の電力の周被数に対しては大きなィレビーダンスを示し、 主 制御装置 40並びに冷却運転制御部 1 5a, 1 5b, 1 5cから発信さ れる庫內温度儅号 ¾ぴ冷却機駆動信号の离波數に対して小さなィン ピーダンスを示す冷却運転用電力遮断用コ ンデンサ c 3 a, e 3 b, c 3 c, c3eがそれぞれ介装されている。 このように、 制镩ライン 34a, 3 4 b, 340, 34 eと個别 1濂洪給ライ ン 3 1 とで温耷信号及び冷却 運転制御信号の伝送用信号ライ ンが开成される。 Between 0 and 0, the control signal lines 34e are not connected to each other. Each of these control lines 34a, 34b, 34c, 34e has a power factor for cooling operation. Indicates a large delay, and shows a small impedance with respect to the refrigerator temperature signal transmitted from the main controller 40 and the cooling operation control units 15a, 15b, and 15c. The cooling operation power cut-off capacitors c3a, e3b, c3c, and c3e shown are interposed, respectively. In this way, the control signals 34a, 34b, 340, 34e and the individual 1-control flood line 31 are used for the heating signal and cooling. A signal line for transmitting the operation control signal is generated.
主制御部 4 0は、 マイ ク oコ ンピ ータ(M P U )を用いて簿成さ れ、 内廐されるブ グラムに従って勖作し、 各第 2コ ンテナ^? 却 機 1 4 a, 1 4 b, 1 4 cを起動させるための制御信号を、 対応する冷 却運転制御郐 1 5 a, 1 5 b, 1 5 eへ送出する β 主制掏装 S 4 0は、 電力供铪ライ ン 3 1への主電源が投入された時、 第 2コンチナ 1 1 ' a, 1 l ' b, 1 1 ' eの冷却運転制御部 1 5 a, 1 5 b, 1 5 cに対して庫 内 '虽度のデータ要求信号を各コンチナ毎に割り当てられた相互に裊 なるタイ ミ ングに送出する。 このデータ要求信号に.応答して、 冷却 運転制御部 1 5 a, 1 5 b, 1 5 cは、 第 2コンテナ 1 1 ' a, 1 Γ b, 1 1 ' «3のそれぞれの庫内温 Sデ—夕を主制御装置 4 0へ送出する。 主 制御装置 4 0は、 冷却運転制御部 1 5 a, 1 5 b, 1 5 eから供袷され た温度データを各第 2コンチナ 1 毎に設けた目標温度設定器 5 0で予め設定されている目檩温度を示すデータと比較し、 検出した 庫內溢度データと目襟温度との差の ¾も大きいもの即ち冷却運転の 緊急度が最も髙いと判断きれる小型コ ンテナの冷却運耘钊御部へ起 勤制御信号を送出する。 次いで、 残りの 2つの第 2コンテナの軍 温度データを目檫溫度と比較し、 第 1番目の起動釗御信号を送出し た後靳定時間錢過後に、 次に冷却運Sの緊 (急度が高い第 2コンテナ の冷却運転制御部へ起動制御信号を送出する β 主制御装置 40は第 2番目の起動制御信号を送出した後斩定時間径過後に、 まだ動作し ていない最後の第 2 ンテナに起動制御信号を送出する The main control unit 40 is formed using a micro computer (MPU), operates according to the program stored therein, and operates each second container cooling machine 14 a, 1 The β main control pick-up device S 40, which sends control signals for starting 4 b and 14 c to the corresponding cooling operation control devices 15 a, 15 b, and 15 e, uses a power supply line. When the main power to the power supply 31 is turned on, the cooling operation control units 15a, 15b, and 15c of the second The first data request signal is transmitted to mutually different timings assigned to the respective continas. In response to this data request signal, the cooling operation control units 15a, 15b, 15c determine the internal temperature of each of the second containers 11'a, 1, b, 11 '«3. The S data is sent to the main controller 40. The main controller 40 preliminarily sets the temperature data supplied from the cooling operation control units 15a, 15b, and 15e in a target temperature setting unit 50 provided for each second continer 1. Compared with the data indicating the target temperature, the difference between the detected overflow data and the temperature of the eye collar is large, that is, the cooling operation of the small container that can be judged to have the highest urgency of the cooling operation. Go to your part Sends a work control signal. Next, the arm temperature data of the remaining two second containers is compared with the target, and after the first start control signal is transmitted, after a lapse of a fixed time, then the cooling operation S After sending the second start control signal, the β main controller 40 that sends the start control signal to the cooling operation control unit of the second container that has a high degree 2 Send start control signal to antenna
上記した制御装置作動を説明する。  The operation of the above-described control device will be described.
ま電源が投入され、 共通 -ネク夕 5 aを介して電力が供給され、 第 1コンテナ 1の冷却機 6が冷却運転を開始する。 生制御装置 40 は、 第 2コ ンテナ 1 l'a, 1 l,b, 1 l'cのそれぞれの冷却運転制御 部 15a, 15b, 15cに対して温度データ荽求信号を送出する。  Then, the power is turned on and the power is supplied through the common-connector 5a, and the cooler 6 of the first container 1 starts the cooling operation. The raw control device 40 transmits a temperature data request signal to the respective cooling operation control units 15a, 15b, 15c of the second containers 1 l'a, 1 l, b, 1 l'c.
まず、 主制御装置 40より、 各第 2コ ンテナ 1 l,.a, 1 l'b, 1 1 First, from the main controller 40, each second container 1 l, .a, 1 l'b, 1 1
(以下 3個のコンテナを総称するときは 1 Γという。 )の庫内温 度を示すデータを荽求する信号をコンデンサ C3eを介して鴛カ洪耠 ライ ン 3 1に各コンテナ 1 l'a, 1 l'b, 1 I'eに割り当てられた到 俾のタイ ミングにて送出する。 この信号には、 3台の第 2コンテナ 1 1,のそれぞれを識别するための I D番号が含まれており、 この I D番号に対応する第 2コンテナ 1 Γの冷却運耘制掏装置 1 5が 前記データ要求信号を受信すると、 当該第 2コンテナ 1 Γの温度 検知器 1 6で検出したそれぞれの第 2コンテナ 1 Γの虜内溘度を 表す信号に当該 I D番号を付してコンデンサ C,各々と電力供給ラ イ ン 3 1 とを介して主制御装置 4 0に送信する。 主制御装匱 4 0は、 1つの第 2コンテナたとえば 1 1 ' aから庫内温度のデータを受信す ると順次異なるタイ ミ ングで、 他の二つの T2コンテナ 1 1 ' b, 1 1 ' cに対しても同様に庫内温度データを送信すること ¾要求する。 主制御装置 4 0は 3つの第 2'コンテナ 1 1 'のそれぞれの庫内温度 データを受信すれば、 それらの庫内温耷デ—夕を各コンチナ 1 1 ' ' に対して予め設定されている目標温度と比較し、 冷却運転の緊急度 の最も髙'いと判定した第 2コンテナ 1 Γの冷却装置 1 4各々を起 動させるための起動信号を冷却運転制御装置例えば 1 5 aに送出す る。 この起勤信号も送出してから所定の時間が轾過 れば、 残りの 2台の第 2コンテナたとえば 1 l ' b, 1 l,cの庫内温度データを各 第 2コンテナ 1 l,b, 1 i'cに予め設定されている目檩溫度と比較 し、 次に冷却運転の緊急度の髙ぃ笫 2 =ンチナ、 たとえば 1 l 'bに 対し起動信号を送出し、 更に所定時間が錢過すれば、 まだ起動して いない最後の第 2コンチナたとえば 1 l'cに起動信号を ¾出する。 以後各第 2コンチナ 1 1'に収納した物品を冷却しておく必要が ある間、 上述の動作が所定タイ ミ ングで镍り返され、 起動制御信号 を受信した冷却運転釗御部 1 5a, 1 5b, 1 5cは、 対応する冷却機 14 ar 14 b, 14cを起勤するとともに、 温度検知器 16 a, 16 b, 1 6cが送出する温度信号と目樣温度とに基づいて小型コ ンテナ内 の菡度を所定の温度に保つように冷却機 14a, 14 b, 14eを断缭 動作させる等して制御する。 (Hereinafter, when the three containers are collectively referred to as 1 mm.) A signal for requesting the data indicating the temperature in the refrigerator is supplied to the Oshikako Line 31 via the capacitor C 3 e to each container 1 l. Transmit at the timing of the signal assigned to 'a, 1 l'b, 1 I'e. This signal includes three second containers 11 includes an ID number for identifying each of them. When the cooling cultivation picking device 15 of the second container 1 corresponding to the ID number receives the data request signal, the second The ID number is added to the signal indicating the degree of internal capacity of each second container 1 検 出 detected by the temperature detector 16 of container 1 当 該 and the corresponding capacitor C is connected via the power supply line 31. To the main controller 40. When the main control equipment 40 receives the internal temperature data from one of the second containers, for example, 11'a, the other two T2 containers 11'b, 11 'have different timings sequentially.庫 Requests that c temperature data be transmitted to c as well. When the main controller 40 receives the internal temperature data of each of the three second 'containers 11', the main controller 40 pre-sets the internal temperature data for each container 11 ''. The start signal for starting each of the cooling devices 14 of the second container 1 that has been determined to have the highest degree of urgency for the cooling operation by comparing with the target temperature is sent to the cooling operation control device, for example, 15a. You. If a predetermined time elapses after the start-up signal is also transmitted, the inside temperature data of the remaining two second containers, for example, 1 l'b, 1 l, and c, are stored in each container. After comparing with the preset degree of the second container 1 l, b, 1 i'c, the emergency signal of the cooling operation 髙 ぃ 笫 2 = china, for example, the start signal is sent to 1 l'b After the transmission, if a predetermined time elapses, an activation signal is output to the last second continuator that has not been activated, for example, 1 l'c. Thereafter, while it is necessary to cool the articles stored in each second container 11 ', the above-described operation is repeated at a predetermined timing, and the cooling operation control section 15a, which has received the start control signal, 1 5b, 1 5c the corresponding cooler 14 a r 14 b, as well as OkoshiTsutomu the 14c, miniature co based on the temperature signal and eye樣温degree temperature detectors 16 a, 16 b, 1 6c throws Control is performed by, for example, disconnecting the coolers 14a, 14b, and 14e so as to maintain the temperature inside the antenna at a predetermined temperature.
なお、 小型 ンチナ用冷却機 14 1 4b, 14c内の電篛回路内 には、 図示していないが、 たとえばリレーコイルとリ レー接点とか らなるリレーが設けられており、 このリレーが冷却運&制御部 1 5 a, 1 5 b, 1 5eからの作動信号に応答して駆勤され、 そのリレー接 点が閉じることにより冷却捿 14 a, 1 b, 1 4 cが駆動される。 次に、 上記の複合コンテナの使用例 ¾ ¾ぺる。 Although not shown, a relay consisting of a relay coil and a relay contact is provided in the electric circuit in the small-sized refrigerators 1414b and 14c. The engine is driven in response to an operation signal from the control unit 15a, 15b, 15e, and the cooling contacts 14a, 1b, 14c are driven by closing the relay contact. Next, an example of the use of the above composite container.
第 2のコ ンテナ 1 Γを第 1 コ ンテナ 1 に収容せずに輸送する場 合は、 冷気 β熱装蠢 2 0のシャ "タ一 2 O cを閉じた状態 して、 庫内の冷気が逃げないようにする。 —方第 2 コ ンテナ 1 Γを第 1 コ ンテナ 1 '内に収容して保冷する場合には、 各第 2 コ ンテナ 1 1 ' を分歧コネクタ 3 2によ り電力供耠ライ ン 3 1 に接铙する。 そして、 該第 1 コ ンテナ Γをメイ ンコネクタ 5 aにより 3 ンテナ船等の電頹 設備に接続して主電源の供耠を受けるようにする。 これにより、 第 1 ンチナ 1 'の冷 _却装置 6が冷却運転を開始するとともに、 3台 の第 2 コ ンテナ 1 1 'は、 述したように、 冷却運転の緊急度の高' い順に冷却運転を開始する。 又、 このとき、 第 2コンテナ 1 1 'に おける冷気伝熱装置 2 0のシャ ッ ター 2 0 cを開放し、 フ プ ン 2 O d を運転することにより、 第 1 コ ンテナ Γ内の冷気が熱伝導性の良 ぃダク ト 2 Q 'b内を流れ、 その際、 熱交換プレ—ト 2 1を介して第 2 コ ンテナ 1 Γ內に冷気の温度が伝わるので、 各第 2 コ ンテナ 1 1,は急遝に冷却される。 各第 2 3ンチナ i 1 'の庫内が所定の温度まで冷却されれば、 冷 気伝熱装置 2 0のシャッター 2 O cを開放、 フア ン 2 O dを這転して おく ことにより、 第 1 コンテナ Γの冷熟が上 13交換プレー ト 2 ί を介して第 2 3ンテナ 1 I 'に供給されるので各第 2コ ンテナ 1 Γ の冷却装置 1 4は停止もしくは間欠運転としても充分に庫內麄度を 目標値に保つ とができる。 When transporting the second container 1 収容 without containing it in the first container 1, keep the shutter 2 Oc of the cold heat β When storing the second container 1 収容 in the first container 1 ′ and keeping it cool, power is supplied to each second container 1 1 ′ by the separation connector 3 2. It is connected to the supply line 31. Then, the first container is connected to power equipment such as a 3rd ship by the main connector 5a to receive supply of the main power. As a result, the cooling device 6 of the first container 1 ′ starts the cooling operation, and the three second containers 11 ′ perform the cooling operation in the descending order of the urgency of the cooling operation as described above. At this time, the shutter 20c of the cool air heat transfer device 20 in the second container 11 'is opened, and the pump 2Od is operated. As a result, the cool air in the first container flows through the heat conductive duct 2Q'b, and the cool air in the second container 1 passes through the heat exchange plate 21. Since the temperature is transmitted, each second container 11 is rapidly cooled. Once the interior of each of the 2nd and 3rd containers i 1 ′ is cooled down to a predetermined temperature, the shutter 2 O c of the heat transfer device 20 is opened, and the fan 2 O d is rolled up. Since the cooling of the first container Γ is supplied to the second container 1 I 'via the upper 13 exchange plates 2', the cooling device 14 of each second container 1 停止 can be stopped or operated intermittently. The storage temperature can be maintained at the target value.
尚、 上記実施例では、 各第 2コ ンテナ 1 1ノを冷却遒転の緊急度 順^運転するようにしたが、 予め設定した順序でもって第 2コンテ ナ 1 Γを運転するように,してもよい。  In the above embodiment, each second container 11 is operated in the order of urgency of cooling, but the second container 11 is operated in a preset order. You may.
第 6 Α図及び第 6 Β図は、 第 2コンテナ 1 1,の冷気伝熱装置 2 0の别の実施例を示す拡大断面図である。 例えば第 2コンチナ 1 1 'の上壁面 1 2 Xの所定部に、 栢互に対向する一対の熱導入部^ 4 1 , 4 2が設けられており、 外面(図中上方向)に位蠹する側の熱導入部 材 4 1は、 矢印 Kで示すように図中、 左右方向に摺動自在に設けら れる。 それぞれの熱導入部材 4 1 , 4 2は、 アルミユウムゃ鐧等の 熱伝導性の良い材料からなり、 それぞれの熱導入部材 4 1 , 4 2の 相対向する側には、 突出した伝熱部 4 i a, 4 2 aが形成され、 各伝 熱部 4 1 a, 4 2 a間のそれぞれの凹部には、 熱を伝えにく いプラス チック材料による断熱部 4 3が嵌設されている。 各伝熟部の 4 1 4, 4 2 aの先端は斜面 44に形成されており、 また熱導入部材 4 1 は 図示しない案内部材によって垂直方向には移勣不自在になっている のでこの熱導入部材 4 1を図上左方向に移動したとき雨伝熱部 4 1 a, 4 2 aとの接触を確実にしている。 FIG. 6 and FIG. 6 are enlarged cross-sectional views showing an embodiment of the cold air heat transfer device 20 of the second container 11. For example, a pair of heat introduction portions ^ 41, 42 facing each other is provided at a predetermined portion of the upper wall surface 12X of the second contina 1 1 ', and is arranged on the outer surface (upward in the figure). The heat introduction member 41 on the side to be heated is slidably provided in the left and right direction in the figure as shown by the arrow K. Each of the heat introducing members 4 1, 4 2 is made of a material having good heat conductivity such as aluminum 、, and each of the heat introducing members 4 1, 4 2 Protruding heat transfer portions 4 ia and 42 a are formed on the opposite sides, and the respective recesses between the heat transfer portions 41 a and 42 a are made of a plastic material that is difficult to transfer heat. A heat insulating portion 43 is fitted. The tips of 4 14, 4 2 a of each ripening section are formed on a slope 44, and the heat introducing member 41 is not movable in the vertical direction by a guide member (not shown). When the introduction member 41 is moved to the left in the figure, contact with the rain heat transfer portions 41a and 42a is ensured.
第 6 A図は、 一方の部材における伝熱部が他方の部材における断 熱郃 4 3と当接した状態を示しており、 この状態では、 雨熱導入部 ' 材 4 1 , 4 2間 断熱部 4 3が介在するため、 両熱導入部材間の熱 伝導は生じない。 一方、 第 6 B図は、 熱導入部材 4 1が図中左方向 ヘスライ ドした状態を示しており、 この状態では両熱導入部材 4 1 , 2における伝熱部 4 1 aと 4 2 aとが相互に当接するため、 両熱導 入部材 4 1 , 4 2間で熱伝導が生じる。 このように—方の熱導入部 材 4 1を矢印方向に移動させることにより、 両熱導入部材 4 4 2間で遷択的に断熟状態あるいは伝熱状態とすることができる。 上記熟導入部材 4 1は電勤 ¾ータによ て移 ¾させてもよいし、 あるいは手動あるいは ¾宜¾レバーを介して移動されるようにして もよい。 FIG. 6A shows a state in which the heat transfer section of one member is in contact with the heat insulation 郃 43 of the other member. In this state, the heat transfer section 断 熱 is insulated between the members 41, 42. Since the part 43 is interposed, no heat conduction occurs between the two heat introducing members. On the other hand, FIG. 6B shows a state in which the heat introducing member 41 slides in the left direction in the figure. In this state, the heat transfer portions 41 a and 42 a of the heat introducing members 41 and 2 are in this state. Are brought into contact with each other, so that heat conduction occurs between the two heat conducting members 41 and 42. In this way, by moving one of the heat introduction members 41 in the direction of the arrow, a transition between the two heat introduction members 442 can be made into a ripened state or a heat transfer state. The mature introduction member 41 may be moved by an electric motor, or may be moved manually or via a lever as appropriate.
また、 図示の例では伝熱部 4 l a, 4 2 aと断熱部 4 3とは理解を 容易にするために伝熱部と断熱部をほぼ等しくしているが、 両者の 面積の大きさは随意に設定すればよく、 伝熱部 4 l aと 4 2 a間の伝 熱勃喿を高めるために伝熱部 4 i a, 4 2 aを大きくすることができ る。  In the illustrated example, the heat transfer sections 4 la and 42 a and the heat insulation section 43 are made substantially the same as the heat transfer section and the heat insulation section in order to facilitate understanding. The heat transfer portions 4 ia and 42 a can be increased to increase the heat transfer between the heat transfer portions 4 la and 42 a.
さらに断熱部 4 3に充填した断熱材は、 雨熱導入部材 4 l aと 4 2 aとが離れた塲合の雨者間の空気の対流を少なくするために嵌入 したものである。  Further, the heat insulating material filled in the heat insulating portion 43 is inserted into the rain heat introducing members 4 la and 42 a in order to reduce the convection of the air between the rainy people in the distant places.
上述の熱導入部材 4 1 , 4 2は第 2コンテナ 1 Γの天井のみなら ず逮宜な壁面に設けることができ、 この場合には第 2図に示した冷 気伝熱装置 2 0を省略できる。  The above-described heat introduction members 41 and 42 can be provided not only on the ceiling of the second container 1 ず but also on the arbitrarily wall surface.In this case, the cold air heat transfer device 20 shown in FIG. 2 is omitted. it can.
第 7図は、 制御装置の他の実旌例を示し.、 第 4図の実旌例と異な るのは、 主制御装置 4 0を省略し、 この主制御装置 4 0の機能を各 第 2 コンテナ 1 の冷却運転制御装置 1 5 'に持たせたことである。 第 8図は、 第 7図の回路図を示している。 Fig. 7 shows another example of the control device.The difference from the example of Fig. 4 is that the main control device 40 is omitted and the functions of the main control device 40 are described in detail. That is, the cooling operation control device 15 'of the second container 1 is provided. FIG. 8 shows the circuit diagram of FIG.
以下に第 8図の回路図における制御勣作を銳明する。  The control operation in the circuit diagram of FIG. 8 will be described below.
各冷却制御装置 1 5 'は、 マイク ロコンピュータ (M Pじ) を用. いて構成され、 内蔵したプログラムに従い以下のごと く勤作する。  Each cooling control device 15 'is constructed using a microcomputer (MP) and works as follows according to the built-in program.
まず、 一つの第 2コ ンテナ 1 Γ Aとする)の冷却違転制御 装置 1 5,より、 他の二つの第 2コンテナ 1 〈1 l ' B , 1 l ' Cと する)のそれぞれの冷却運転制御装置 1 5 'に対し庫内温度のデータ 要求信号を送出する。 このデータ要求信号に応答して、 それぞれの 庫内温度を第 2 コ ンテナ 1 1 ' Aに送出する。 第 2コ ンテナ 1 Γ A の冷却運転制御装置 1 5 'は、 自己の庫内温度と、 他の二つの庫内 涵度とを比較し、 第 2コンテナ 1 1 ' Aが冷却運転の緊急度が最も 高いと判定したとき、 自己の冷却装置 1 4を起動きせる起動信号を 出力する。. 一方、 上記の比較により、 他の第 2 コ ンテナ i Γ Bあ るいは 1 I ' Cの方が冷却運転の緊急度が高いと判定したときは、 . 第 2コンテナ 1 Γ Βあるいは 1 Γ Cの対 £5する冷却運転制御装置 15'に起勤信号を送出する。 このようにして 1番目の第 23ンチ ナ 1 Γが冷却を開始して所定の時間が轾通すれば、 第 23ンチナ 1 Γ Aの冷却運転制御装 S15'より、 次に冷却運転の緊急度の髙 い第 2ユンテナ Λ 1,に対し起動信号も送 ¾し、 更に所定の時間が 鏟適すれば、 最後の第 2コンテナ 1 に対し起動信号を送出する。 First, the cooling inversion control device 15 of one second container 1 Γ A) cools each of the other two second containers 1 〈1 l B B and 1 l C C). A data request signal for the internal temperature is sent to the operation control device 15 '. In response to this data request signal, the respective internal chamber temperatures are sent to the second container 11'A. The cooling operation control device 15 ′ of the second container 1 Γ A compares its own internal temperature with the other two internal recharges, and determines the urgency of the cooling operation of the second container 11 ′ A. When it is determined that the temperature is the highest, it outputs a start signal for starting its own cooling device 14. On the other hand, if it is determined from the above comparison that the other second container i Γ B or 1 I 'C has a higher urgency of the cooling operation, the second container 1 Γ or 1 Γ Cooling operation controller to £ 5 vs C Send a start signal to 15 '. In this way, the first second 3 inch burner 1 gamma is轾通a predetermined time to start cooling, than the 23 Nchina 1 gamma cooling operation control instrumentation of A S15 ', then the emergency cooling operation The start signal is also sent to the second unit 1 that has a higher frequency, and the start signal is sent to the last second container 1 if a predetermined time is appropriate.
第 9図は、 制御装置のさらに他の実施例を示していて、 第 4図に 示した実旛例と異なるのは、 冷却装置 6'には、 第 4図図示の主釗 御装置 40を含む構成となっており、 各第 2コンテナ 11'は、 こ の冷却制御装置 6'により制钿される。 第 10図はは第 9図の画路 図を示しており、 制御動作としては、 第 1の実施例と同様であるの で説明を省略する。  FIG. 9 shows still another embodiment of the control device, which is different from the working example shown in FIG. 4 in that the main control device 40 shown in FIG. Each of the second containers 11 'is controlled by the cooling control device 6'. FIG. 10 shows an image path diagram of FIG. 9, and the control operation is the same as that of the first embodiment, so that the description is omitted.
なお、 上述の各寞旌例においては、 第 1のコ ンテナに冷却装置 6, 6, を傭え、 第 2のコンテナ 1 li i 1' に冷却装置 14を装傭し た場合につき説明したが、 本髡明の他の実旛例としては第 1のコン テナ 冷却装置 6, 6' の代わりに: =ンテナ内部を冷却又は加熱す る瀑度謂節装匱を装傭し、 第 2のコ ンテナ 1 1 Γ に冷却装置 1 4の代わりにコンテナ内部を冷却又は加熱する通度調節装置を装 慵した ¾>のがある。 In each lonely example described above, a case was described in which the cooling devices 6, 6 were hired for the first container, and the cooling device 14 was hired in the second container 1 li i 1 '. However, as another example of the present invention, instead of the first container cooling device 6, 6 ': = a waterfall that cools or heats the inside of the container is installed, and the second container cooling device is used. Cooling device in container 1 1 Γ Instead of 14, there is a device equipped with a temperature control device to cool or heat the inside of the container.
なお、 上述の各実旖伊 ίにおいては第 2コンテナに設ける温度調節 装置としてはペルチ 素子を用いて構成されるものの他に冷却効暴 あるいは加熱効果を呈する種々の熱電素子を用いて構成することが できる。 なおペルチュ素子も使用した場合には素子に流す電流の向 きを変更することによって、 冷却、 加熱作用の両方を.容易に選択的 に行わせることができるので使用上便利である e In each of the above-mentioned experiments, the temperature control device provided in the second container should be constructed by using various thermoelectric elements exhibiting a cooling effect or a heating effect, in addition to the one using a Peltier element. Can be done. Note by changing the came direction of the current flowing through the element when Peruchu device was also used, cooling is convenient Usage since both heating effect. Can be easily selectively performed e
きらに上述の実 例のいくつかにおいては第 2 ンテナ内の温度 が第 1 コンテナ內の温度よりも低い場合について説明したが、 第 2 コンテナ内の温度を第 1 コンテナ内の温度より高く設定することも でき、 例えば第 1 コ ンテナ内温度が一 1 8。 C、 第 2コ ンテナ 1 1' ' a, 1 Γ b, 1 l ' cの温度を各々一 5。 C , 0 ° C , 1 0。 Cに設定す る場合には第 2の冷却装置 1 4を単にヒータに置換すればよい。 以上锐明したように、 本発明によれば、 一般に用いられるコンテ ナ(本発明でほ第 1のコンテナと称した)より容積の小きい第 2コン チナにて冷葳もしくは冷凍物品を 送できるので、 篱体の大きい第In some of the examples described above, the case where the temperature in the second container is lower than the temperature in the first container 説明, but the temperature in the second container is set higher than the temperature in the first container For example, the temperature in the first container is 1-18. C, 2nd container 11 1 'a, 1 Γ b, 1 l' c The temperature of each 1-5. C, 0 ° C, 10. When setting to C, the second cooling device 14 may be simply replaced with a heater. As described above, according to the present invention, the second container having a smaller volume than a generally used container (referred to as the first container in the present invention). Since cold or frozen goods can be sent in China,
1 3ンチナを消費地まで輸送しなくても済み、 また、 大容量の IS動 電籙を要しないので、 一般のトラックにて輪送可能となるとともに、 大容量の霄^設備も有しない港でも係管可能となり、 効率のよい翰 送が行える。 又、 輪送物品が第 2のコ ンテナより隔雜されるので、 第 1 コ ンテナの洗浄や脱臭作業の手間が不要であり、 第 1 コンテナ を効率よく稼動させることができる。 (1) Ports that do not need to transport 13 chintinas to the consuming area and do not require large-capacity IS power lines, so they can be transported by ordinary trucks and do not have large-capacity facilities However, it is possible to be engaged and efficient transmission can be performed. In addition, since the transported goods are separated from the second container, the labor for cleaning and deodorizing the first container is not required, and the first container can be operated efficiently.
また、 第 1のコ ンテナ內に複数の第 2のコンテナを収容する本発 明による複合コ ンテナは、 第 2コ ンテナ内の温度を所定の異なる温 度に設定できるので、 それぞれ異なる温度にて冷やすことが荽求さ れる多種類の物品を同時に搬送することができる。  Further, the composite container according to the present invention in which the first container accommodates a plurality of second containers can set the temperature inside the second container to a predetermined different temperature, so that each of the composite containers has a different temperature. Many types of articles that require cooling can be transported simultaneously.
また、 本発明によれば、 第 2 ンテナの外の温度は第 i コンテナ の温度調節装置により制御される。 第 2コンテナを単毪で使用する 場合にく らぺて第 2コンテナの外部の温度と內部の温度との差を小 さくすることができるので、 第 2コ ンテナに設けられる温度調節装 置は小きな温度制御範囲内において第 2コンテナ內の温度を調節す ればよく高精度の温度設定が可能となり、 すなわち髙靖度に第 2コ ンテナ内の温度を所定の設定温度に調節することができる。 Further, according to the present invention, the temperature outside the second antenna is controlled by the temperature control device of the i-th container. When the second container is used alone, the temperature difference between the outside temperature and the part of the second container can be reduced, so that the temperature control device provided in the second container is Adjust the temperature of the second container 内 within a small temperature control range. Thus, it is possible to set the temperature with high accuracy, that is, it is possible to adjust the temperature in the second container to a predetermined set temperature at a satisfactory level.

Claims

請求の範囲 The scope of the claims
( 1 ) 第 1のコンチナ及び第 1のコンテナ內に収容される複数の第 2のコ ンテナより.なり、 前記第 1 Sび第 2の ンテテは、 断熱保温 壁材にてなり、 かつ内部を冷却又は加熱するコ ンテナ内温度調節装 置を備えたことを待徵とする複会コンテナ。  (1) A first container and a plurality of second containers housed in a first container な り, wherein the first S and second containers are made of a heat-insulating wall material, and the inside is A multi-layer container waiting to have a temperature control device inside the container to cool or heat.
( 2 ) 第 2のコンテナの ンテナ内温度調節装置が、 熟伝素子で構 成される請求の範囲第 1項記載の複合-ンテナ。  (2) The composite antenna according to claim 1, wherein the temperature control device in the container of the second container is constituted by a mature element.
(3 ) 第 2 ©コ ンテナは、 第 2コ ンチナの外部の熱を第 2コンテナ 內に伝える伝達手段を備えた請求の範囲第 1項記載の複合コンテナ。 ( 4〉第 1の ンテナに収容した複数の第 2のコ ンテナのそれぞれの コンテナ内温度調節装置を異なるタイ ミ ングで起動させるに際し、 制御装置を備えた請求の範囲第 1項ないし第 4項のいずれかに記戴 の複合コ ンテナ。  (3) The composite container according to claim 1, wherein the second container is provided with a transmission means for transmitting heat outside the second container to the second container. (4) Claims 1 to 4 provided with a control device when each of the plurality of second containers housed in the first container is activated at a different timing in the container. A composite container written in one of the following.
( 5 ) 各第 2のコンテナ内の温度を検出する温度検知器と、 滠度検 知器で検出された各第 2コ ンテナ内の撿出温度を目標温度と比較し て、 検出温度と目標混度との差が大きい第 2コンテナのコンテナ內 温度調節装蠹を起動させるた の信号を送出する制御装置とを備え た請求の範囲第 4項記截の複合コ ンテナ。 (5) The temperature detector detects the temperature in each second container, and the output temperature in each second container detected by the temperature detector is compared with the target temperature. Container of the second container with a large difference from the mixture 內 5. The composite container according to claim 4, further comprising a control device for transmitting a signal for activating the temperature control device.
( 6 ) 第 1 のコ ン.テナに収容して使用される第 2のコ ンテナで つ て、 断熱保温壁材にてなり、 内部を冷却又は加熱するコ ンテナ内潼 度調節装置を備えたことを特徵とする第 2のコ ンテナ。  (6) The first container, which is a second container housed in a container and used as a heat insulating and heat insulating wall material and equipped with a container internal temperature adjustment device for cooling or heating the inside A second container that specializes in this.
( 7 ) 笫 1 のコ ンテナと、 第 1のコ ンテナ内に収容可能であり断熱 構造を有する複数の第 2のコンテナと、 第 2のコンテナに設けられ 該第 2のコンテナの内部を冷却あるいは加熱する装置を備えたこと を特徵とする複合コ ンテナ。  (7) 笫 1 container, a plurality of second containers capable of being housed in the first container and having a heat insulating structure, and cooling or cooling the inside of the second container provided in the second container. A composite container characterized by having a heating device.
( 8 ) 第 1のコンテナ ¾び第 1のコ ンテナ内に収容される複数の第 2のコ ンテナよりなり、 前記第 1及び第 2のコ ンテナは、 断熟保温 肇材にてなり、 かつ內部を冷却又は加熱する温度調節装置を傭えた 複合コ ンテナも使用し、 輸送物品を収納した第 2のコ ンテナを第 i のコンテナに収容した状態で搬送することを特徵とするコンテナ 搬送方法。  (8) A first container and a plurality of second containers housed in the first container, wherein the first and second containers are made of aged and heat-retained brazing material, and A container transportation method characterized by using a composite container equipped with a temperature control device for cooling or heating a part, and transporting the second container containing the transported goods in the i-th container.
( 9 ) 第 1の - ンチナ及び第 1 の 3 ンチナ内に収容される複数の第 2のコ ンテナよりなり、 前記第 1及び第 2のコンテナは、 靳熱保温 壁材にてなり、 かつ内部を冷却又は加熱する温度篛節装置を備えた 複合コンテナに用いられる第 2 コ ンテナに物品を収納して、 該第 2 コ ンテナの籙度篛節装置を駆動しながら、 該第 2コ ンテナを襯送す ることを特徵とするコ ンテナの搬送方法。 (9) The first-and the third 3 The first and second containers are composed of a heat insulating wall material and a second container used for a composite container provided with a temperature control device for cooling or heating the inside. A method of transporting a container, comprising storing an article and transmitting the second container while driving a second joint device of the second container.
( 1 0 ) 第 1 コンテナ内にそれぞれ温度調節装置を有する第 2 3 ン チナを複数個収鈉するとともに第 2のコ ンテナ内の物 a が所定の涅 度まで冷却又は加熱されたとき、 該第 2のコ ンテナの温度調節装蠢 を停止あるいは間欠運転とする <:とを特徵とする複 コンチナの還(10) When a plurality of the second and third containers each having a temperature control device are contained in the first container and the object a in the second container is cooled or heated to a predetermined temperature, Stop or intermittent operation of the temperature control device of the second container.
¾5 法 0 法 5 method 0
( 1 1 ) 伝達手段は第 2コンテナを賃通する流通路と、 該流通 51の 両端に開閉自在に設けた'ンャッタと、 該流通路内に設けた通気フ, ンとを備えた請求の範囲第 3項記載の複合コンテナ。  (11) The transmission means is provided with a flow passage for renting the second container, a shutter provided at both ends of the flow 51 so as to be openable and closable, and a ventilation fan provided in the flow passage. The composite container according to item 3 of the scope.
( 1 2 ) 伝違手殺-は一方が他方に對,して可勳な伝熱材料にてなる— . 対の伝熱部材を有し、 可動側の伝熟部材は他方の伝熟部材と伝熱可 能に接蝕する位 aと、 他方の伝熱部材から熟的に遮断された位置の -お-10222 PCT/JP88/00632 間で可勤である請求の範囲第 3項に記載の複合コンチナ。 (1 2) The hand killing is made of a heat transfer material which is easy to use on one side.-It has a pair of heat transfer members, and the movable side transfer member is the other end transfer member. And the position where the heat transfer member is in contact with the other heat transfer member. -The composite continer according to claim 3, which is workable between -10222 PCT / JP88 / 00632.
( 1 3 ) 温度調節装置を傭える大型の第 1 コ ンテナ内に、 溫度篛節 装置を備える小型の第 2コ ンテナが複数個収钠される複合コ ンテナ において、  (13) In a composite container in which a plurality of small second containers equipped with a temperature control device are stored in a large first container that can accommodate a temperature control device,
互いに異なる時刻に各第 2 コ ンテナの温度調節装置を起勡するこ とも特徵とする複合コ ンテナ。  A composite container characterized in that the temperature controller of each second container is started at different times.
( 1 4 ) 温度調節装置を備える大型の第 1 コ ンテナ內に、 温度 II節 装置を傭える小型の第 2 コンテナが複数個収納される複合コ ンチナ において、  (14) In a composite container in which a plurality of small second containers that can hire a temperature section II device are stored in a large first container equipped with a temperature
各第 2コンテナ内の温度を検出する温度検知器と、  A temperature detector for detecting the temperature in each second container;
該温度検知器が送出する温度信号を互いに比較し、 上記複数の第 Comparing the temperature signals transmitted by the temperature detector with each other,
2コンテナに対しより冷却又は加熱運転の緊急度の高'い順に起勡信 号を送出する制御器と、 (2) A controller that sends a start signal to the container in the order of urgency of cooling or heating operation,
上記起勤信号に応答して第 2コンテナの温度闞節装置を起動する' 手段と、  Activating the temperature control device of the second container in response to the start signal,
ヒ記温度検知器が送出する温度信号と設定基準温度信号とに基づ 、3 (C) Based on the temperature signal sent from the temperature detector and the set reference temperature signal. , 3
0222 PCT/JP88/00632 いて第 2コンチナの温度調節装蠹の運転を制鄯する冷却加熱暹転釗 御手段とを具備する とも特徵とする複合コ ンチナ。 0222 PCT / JP88 / 00632, further comprising a cooling and heating control means for controlling the operation of the temperature control device of the second container.
( 1 5 ) 温度調節装置を傭える大型の第 1 = ンテナに、 瑟 s蠲節装 匱及び冷却加熱運耘制御部を備える複数個の小型の第 2コ ンテナが 収納され、 前記第 2コ ンテナのそれぞれの漶度篛節装置が、 前記第 1 コンテナ側から前記冷却加熱運転制御部に信号ライ ンを介して与 えられる冷却加熱運転制御信号、 もしくは前 13小型つンチナの冷却 加熱運転制御部相互間で信号ライ ンを介して送 '受信される冷却如 熱運転制御信号に基づいて冷却加熱運転制御されるとともに、 電翥 供铪ラインを介して与えられる冷却加熱運転用霄潺によって作勳き れるように構成されてなる複合コンテナにおいて、  (15) A plurality of small second containers, each of which is equipped with a temperature control device, is provided with a large number of small first containers equipped with a swelling section and a cooling and heating tillage control unit. The cooling and heating operation control signal provided from the first container side to the cooling and heating operation control unit via a signal line, or the cooling and heating operation control of the 13 small pinch irons, respectively. The cooling and heating operation is controlled based on the cooling and heating operation control signal transmitted and received between the units via the signal line, and is controlled by the cooling and heating operation provided via the power supply line. In a composite container that is configured to
前! Ξ第 2コンテナの冷却加熱運 制钿部のそれぞれから延出きれ て前記電瀕供耠ライ ンに接続され、 かつ、 その一部には前記冷却加 熱違 用¾濕の周波数に対して大きなィンピ一ダンスを示し、 前記 冷却加熱運転制御信号周波数に対して小さなイ ンビ—ダンスを示す 冷却加熱運転用電籐遮断ライ ンのそれぞれを傭え、 前記各冷却加熟 運転用竃 遮断ライ ンと前 IB¾^供袷ライ ンとにより前記信号ライ ンを構成してなる複合コ ンテナ。 Before! き Extended from each of the cooling and heating control sections of the second container and connected to the electric supply line, and part of the line was connected to the frequency of the cooling and heating moisture. Each of the cooling and heating operation rattan shut-off lines has a large impedance and a small impedance with respect to the cooling and heating operation control signal frequency. A composite container in which the signal line is composed of an operating oven cutoff line and a front IB-supplied line.
(16) 第 1 コ 'ンチナ及び第 1のコンチナ内に収容される第 2の コンチナよりなり、 前 13第 1及び第 2のコンテナは、 断熱保温壁材 にてなり、 かつ内部を冷却又は加熱する温度調節装置を傭えたこと を特徵とする複合コンテナ。  (16) Composed of the first container and the second container housed in the first container, the first and second containers are made of insulated and heat-insulating wall material, and the interior is cooled or heated. A composite container that specializes in the use of temperature control devices.
(17) 第 1のコンテナ及び第 1のコ ンテナ內 収容される複数の 第 2のコ ンテナよりなり、 前記第 2のコンテナは断熱保菡甓材にて なり、 かつ内部を冷却又は加熱する温度闞筇装置を具傭し、 輸送物' 品を収钠した第 2のコンテナを第 1のコンチナに収容した状態で鎩 送することも特徵とするコンテナの搬送方法。  (17) A first container and a first container. A plurality of second containers to be accommodated. The second container is made of a heat insulating material, and the temperature for cooling or heating the inside. A method of transporting containers characterized in that the equipment is used to transport the second container containing the goods to be transported while being stored in the first container.
(18) 断熱保通壁材にてなり、 かつ内部を冷却又は加熱する温度 調節装置を傭え、 更に外部の熱を內部に伝える伝違手段をそなえた コ ンチナ。  (18) A container that is made of a heat insulating and insulating wall material, employs a temperature control device that cools or heats the inside, and has a means of transmitting external heat to the outside.
PCT/JP1988/000632 1987-06-25 1988-06-24 Compound container WO1988010222A1 (en)

Applications Claiming Priority (8)

Application Number Priority Date Filing Date Title
JP62/159023 1987-06-25
JP15902387 1987-06-25
JP62/159022 1987-06-25
JP15902287 1987-06-25
JP63048939A JPH0385282A (en) 1988-03-02 1988-03-02 Composite container
JP63/48939 1988-03-02
JP63/105967 1988-04-28
JP63105967A JPH0385281A (en) 1988-04-28 1988-04-28 Composite container and article transporting method using the same

Publications (1)

Publication Number Publication Date
WO1988010222A1 true WO1988010222A1 (en) 1988-12-29

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FR2681671A1 (en) * 1991-09-03 1993-03-26 Rampf Heidi ACTIVE REFRIGERATION BOX AND FURNITURE COMPRISING THIS REFRIGERATION BOX.
WO1995022729A1 (en) * 1994-02-17 1995-08-24 Transphere Systems Limited Improvements in or relating to a method of transporting or storing perishable produce
EP0851187A3 (en) * 1996-12-27 1998-08-19 Thermovonics Co., Ltd Storage box apparatus
FR2772691A1 (en) * 1997-12-23 1999-06-25 Felix Georges Dahan Rail transport equipment for freight cargoes
EP1253387A1 (en) * 2001-04-24 2002-10-30 Samsung Electronics Co., Ltd. Storage box
DE102006022510A1 (en) * 2006-05-12 2007-11-15 El Din Wael Nour Sea freight-container for use in ship, has bulkhead for segmenting freight-container, where bulkhead is thermally isolated or slides in form of cell, whose air inlet and outlet required for cooling are implemented in sinks of side walls
ITPD20120254A1 (en) * 2012-08-31 2014-03-01 Perelli Jean Gilbert Caddeo COLD REFRIGERATED AND LOGISTIC TRANSPORT SYSTEM
CN111284932A (en) * 2020-02-26 2020-06-16 广州市尚信净化工程有限公司 Multistage intelligent food rapid refrigerating storage container
JP6993504B2 (en) 2018-07-06 2022-01-13 ニンボ ヤンセン エヌエムアール テクノロジー カンパニー リミテッド Sea shipping equipment and sea shipping system

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Cited By (16)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
FR2681671A1 (en) * 1991-09-03 1993-03-26 Rampf Heidi ACTIVE REFRIGERATION BOX AND FURNITURE COMPRISING THIS REFRIGERATION BOX.
US6615908B1 (en) 1994-02-17 2003-09-09 Transphere Systems Limited Method of transporting or storing perishable produce
WO1995022729A1 (en) * 1994-02-17 1995-08-24 Transphere Systems Limited Improvements in or relating to a method of transporting or storing perishable produce
AP552A (en) * 1994-02-17 1996-11-04 Transphere Systems Ltd A method of transporting or storing perishable produce.
EP0742887A1 (en) * 1994-02-17 1996-11-20 Transphere Systems Limited Improvements in or relating to a method of transporting or storing perishable produce
AU705058B2 (en) * 1994-02-17 1999-05-13 Transphere Systems Limited Improvements in or relating to a method of transporting or storing perishable produce
EP0742887A4 (en) * 1994-02-17 2000-06-14 Transphere Systems Ltd Improvements in or relating to a method of transporting or storing perishable produce
EP0851187A3 (en) * 1996-12-27 1998-08-19 Thermovonics Co., Ltd Storage box apparatus
FR2772691A1 (en) * 1997-12-23 1999-06-25 Felix Georges Dahan Rail transport equipment for freight cargoes
EP1253387A1 (en) * 2001-04-24 2002-10-30 Samsung Electronics Co., Ltd. Storage box
DE102006022510A1 (en) * 2006-05-12 2007-11-15 El Din Wael Nour Sea freight-container for use in ship, has bulkhead for segmenting freight-container, where bulkhead is thermally isolated or slides in form of cell, whose air inlet and outlet required for cooling are implemented in sinks of side walls
DE102006022510B4 (en) * 2006-05-12 2008-11-06 El Din Wael Nour Segmentable sea freight container
ITPD20120254A1 (en) * 2012-08-31 2014-03-01 Perelli Jean Gilbert Caddeo COLD REFRIGERATED AND LOGISTIC TRANSPORT SYSTEM
EP2703200A1 (en) * 2012-08-31 2014-03-05 Jean Gilbert Caddeo Perelli Refrigerated transport system and refrigeration logistics system
JP6993504B2 (en) 2018-07-06 2022-01-13 ニンボ ヤンセン エヌエムアール テクノロジー カンパニー リミテッド Sea shipping equipment and sea shipping system
CN111284932A (en) * 2020-02-26 2020-06-16 广州市尚信净化工程有限公司 Multistage intelligent food rapid refrigerating storage container

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