CN107709907A - Include the refrigerating plant of controlled temperature containment system - Google Patents
Include the refrigerating plant of controlled temperature containment system Download PDFInfo
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- CN107709907A CN107709907A CN201680038183.3A CN201680038183A CN107709907A CN 107709907 A CN107709907 A CN 107709907A CN 201680038183 A CN201680038183 A CN 201680038183A CN 107709907 A CN107709907 A CN 107709907A
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- China
- Prior art keywords
- liquid
- refrigerating plant
- impermeable
- container
- evaporator
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- Legal status (The legal status 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 status listed.)
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Classifications
-
- F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
- F25—REFRIGERATION OR COOLING; COMBINED HEATING AND REFRIGERATION SYSTEMS; HEAT PUMP SYSTEMS; MANUFACTURE OR STORAGE OF ICE; LIQUEFACTION SOLIDIFICATION OF GASES
- F25D—REFRIGERATORS; COLD ROOMS; ICE-BOXES; COOLING OR FREEZING APPARATUS NOT OTHERWISE PROVIDED FOR
- F25D16/00—Devices using a combination of a cooling mode associated with refrigerating machinery with a cooling mode not associated with refrigerating machinery
-
- F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
- F25—REFRIGERATION OR COOLING; COMBINED HEATING AND REFRIGERATION SYSTEMS; HEAT PUMP SYSTEMS; MANUFACTURE OR STORAGE OF ICE; LIQUEFACTION SOLIDIFICATION OF GASES
- F25D—REFRIGERATORS; COLD ROOMS; ICE-BOXES; COOLING OR FREEZING APPARATUS NOT OTHERWISE PROVIDED FOR
- F25D11/00—Self-contained movable devices, e.g. domestic refrigerators
- F25D11/006—Self-contained movable devices, e.g. domestic refrigerators with cold storage accumulators
-
- F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
- F25—REFRIGERATION OR COOLING; COMBINED HEATING AND REFRIGERATION SYSTEMS; HEAT PUMP SYSTEMS; MANUFACTURE OR STORAGE OF ICE; LIQUEFACTION SOLIDIFICATION OF GASES
- F25B—REFRIGERATION MACHINES, PLANTS OR SYSTEMS; COMBINED HEATING AND REFRIGERATION SYSTEMS; HEAT PUMP SYSTEMS
- F25B23/00—Machines, plants or systems, with a single mode of operation not covered by groups F25B1/00 - F25B21/00, e.g. using selective radiation effect
- F25B23/006—Machines, plants or systems, with a single mode of operation not covered by groups F25B1/00 - F25B21/00, e.g. using selective radiation effect boiling cooling systems
Abstract
In certain embodiments, refrigerating plant includes:The impermeable wall of a container of liquid is essentially formed, the container is configured to phase-change material being maintained inside refrigerating plant;At least one active refrigeration unit, at least one active refrigeration unit include one group of evaporator coil, and described group of evaporator coil is located in the inner space of the impermeable container of the liquid;Essentially form the wall of storage area;And heat transfer system, the heat transfer system include:First group of impermeable structure of steam, the hollow interior space of first group of impermeable structure of steam are connected and form condenser, and the wall of the condenser container impermeable with essentially forming liquid, which is in, to be thermally contacted;Second group of impermeable structure of steam, the hollow interior space of second group of impermeable structure of steam are connected and form evaporator, the evaporator with essentially form storage area the wall be in thermally contact;And connector, the hollow interior space of the connector are attached to both the condenser and the evaporator, the connector forms liquid and vapor flow paths between the hollow interior space of the condenser and the hollow interior space of the evaporator.
Description
On theme and the reconcilable degree of this paper, all themes of priority application are herein incorporated by reference.
The content of the invention
In certain embodiments, refrigerating plant includes:Essentially form the one or more of the impermeable container of liquid
Wall, the impermeable container of the liquid are configured to phase-change material being maintained inside refrigerating plant;At least one active
Refrigeration unit, at least one active refrigeration unit include one group of evaporator coil, and the evaporator coil, which is located at liquid, to be oozed
In the inner space of saturating container;Essentially form one or more walls of storage area;And heat transfer system, the heat transfer system
Including:First group of impermeable structure of steam, the hollow interior space of first group of impermeable structure of steam are connected and form condenser,
One or more walls of the condenser container impermeable with essentially forming liquid are in and thermally contacted;Second group of impermeable steam
Structure, the hollow interior space of second group of impermeable structure of steam are connected and form evaporator, the evaporator and substantially shape
One or more walls into storage area are in thermo-contact;And connector, the hollow interior space of the connector are attached to cold
Both condenser and evaporator, the connector are formed between the hollow interior space of condenser and the hollow interior space of evaporator
Liquid and vapor flow paths.
In certain embodiments, refrigerating plant includes:Essentially form the one or more of the impermeable container of liquid
Wall, the container are configured to phase-change material being maintained in refrigerating plant inner space, and wherein one or more walls are overall
Ground includes first group of impermeable structure of steam, and its hollow interior space is connected and forms condenser;At least one active refrigeration list
Member, at least one active refrigeration unit include one group of evaporator coil, and the evaporator coil is located at the impermeable appearance of liquid
In the inner space of device;One or more walls, it essentially forms storage area and integrally includes second group of impermeable steam knot
Structure, second group of impermeable structure of steam, which has, to be connected and forms the hollow interior space of evaporator;And it is attached to condenser
With the connector of both evaporators, the connector is between the hollow interior space of condenser and the hollow interior space of evaporator
Liquid and vapor flow paths are formed, wherein condenser, evaporator and connector forms the heat transfer system with refrigerating plant one.
In certain embodiments, refrigerating plant includes:Essentially form the one or more of the impermeable container of liquid
Wall, the container are configured to phase-change material being maintained inside refrigerating plant;At least one active refrigeration unit, this is at least
One active refrigeration unit includes one group of evaporator coil, and the inside that the evaporator coil is located at the impermeable container of liquid is empty
In;Sensor, the sensor is located in the impermeable container of liquid, one or more walls and one group of evaporator coil it
Between;Essentially form one or more walls of storage area;Heat transfer system, the heat transfer system include:First group of impermeable steam knot
Structure, the hollow interior space of first group of impermeable structure of steam are connected and form condenser, and the condenser is with essentially forming
One or more walls of the impermeable container of liquid are in thermo-contact;Second group of impermeable structure of steam, second group of impermeable steaming
The hollow interior space of depressed structure is connected and forms evaporator, the evaporator and essentially forms one or more of storage area
Individual wall is in thermo-contact;And connector, the connector are attached to both condenser and evaporator, the connector is in condenser
Liquid and vapor flow paths are formed between hollow interior space and the hollow interior space of evaporator;And operationally it is attached
To at least one active refrigeration unit and the controller of sensor.
Above-mentioned summary is merely exemplary and is not intended to and limited in any way.Except these explanations described above
Property aspect, outside embodiment and feature other aspect, embodiment and features by referring to accompanying drawing and following detailed descriptions
It will be clear.
Brief description of the drawings
Fig. 1 is the schematic diagram of refrigerating plant.
Fig. 2 is the schematic diagram of refrigerating plant.
Fig. 3 is the schematic diagram of refrigerating plant.
Fig. 4 is the schematic diagram of refrigerating plant.
Fig. 5 is the schematic diagram of refrigerating plant.
Fig. 6 is the schematic diagram in the region of refrigerating plant.
Fig. 7 is the schematic diagram of refrigerating plant.
Fig. 8 is the schematic diagram in the region of refrigerating plant.
Embodiment
The part that accompanying drawing these accompanying drawings form the detailed description is with reference in the following detailed description.It is attached at these
In figure similar symbol be typically represented as similar part unless context it is further noted that.In detailed description, accompanying drawing and right
Illustrative embodiment described in it is required that is not intended to be limited.In the spirit or scope without departing substantially from the theme herein proposed
In the case of can use other embodiments and can carry out other changes.
There is described herein the various aspects of refrigerating plant.For example, in certain embodiments, refrigerating plant, which has, to be used as
Size, shape and the configuration of household refrigerating device.For example, in certain embodiments, refrigerating plant, which has, is used as domestic refrigerator device
Size, shape and the configuration of tool.For example, in certain embodiments, refrigerating plant has size, shape as commercial refrigerator device
Shape and configuration.For example, in certain embodiments, refrigerating plant has size, shape and configuration as medical refrigerating plant, all
Such as at the clinic in the uncertain or region of intermittent power supply or health station.
At least one storage area that refrigerating plant as described herein is configured into each refrigerating plant provides
Lasting temperature control.Refrigerating plant as described herein be designed to even in refrigerating plant can not be based on conventional electron (such as
During power-off) operation when, also at least one storage area into refrigerating plant provides lasting temperature control.Specifically
Ground, it is contemplated that refrigerating plant as described herein will be useful in the position for carrying out interval or variable power supply to refrigerating plant
's.For example, in certain embodiments, refrigerating plant may be configured to indefinitely be maintained at internal storage area or region
Within the scope of predetermined temperature, and refrigerating plant can averagely obtain about 10% electrical power.For example, in certain embodiments, refrigeration
Device may be configured to indefinitely be maintained at internal storage area or region within the scope of predetermined temperature, and refrigerating plant
About 5% electrical power can averagely be obtained.For example, in certain embodiments, refrigerating plant may be configured to indefinitely by
Portion storage area or region are maintained within the scope of predetermined temperature, and refrigerating plant can averagely obtain about 1% electrical power.Example
Such as, in certain embodiments, refrigerating plant may be configured to internal storage area or region being maintained at predetermined temperature range
Inside at least 30 hours.For example, in certain embodiments, refrigerating plant may be configured to internal storage area or region holding
At least 50 hours in predetermined temperature range.For example, in certain embodiments, refrigerating plant may be configured to internal reservoir
Region or region are maintained in predetermined temperature range at least 70 hours.For example, in certain embodiments, refrigerating plant can by with
It is set to and is maintained at internal storage area or region in predetermined temperature range at least 90 hours.For example, in certain embodiments, system
Device for cooling may be configured to internal storage area or region being maintained in predetermined temperature range at least 110 hours.For example,
In some embodiments, refrigerating plant may be configured to internal storage area or region being maintained in predetermined temperature range at least
130 hours.For example, in certain embodiments, refrigerating plant may be configured to internal storage area or region being maintained at pre-
At least 150 hours in the range of constant temperature degree.For example, in certain embodiments, refrigerating plant may be configured to internal reservoir area
Domain or region are maintained in predetermined temperature range at least 170 hours.
To temperature extremes, sensitive article can be stored in one or more storage areas of refrigerating plant, even if so as to
It can also be held the article in when the power failure of refrigerating plant in longer time within the scope of predetermined temperature.For example,
In certain embodiments, when ambient outside air temperature is between -10 DEG C and 43 DEG C, it is impossible to which the refrigerating plant for obtaining electric power is configured
The temperature of one or more internal storage area is maintained in predetermined temperature range into longer time.For example,
In some embodiments, when ambient outside air temperature is between 25 DEG C and 43 DEG C, it is impossible to which the refrigerating plant for obtaining electric power is configured to
The temperature of one or more internal storage area is maintained at a period of time in predetermined temperature range.For example, in some implementations
In example, when ambient outside air temperature is between 35 DEG C and 43 DEG C, it is impossible to which the refrigerating plant for obtaining electric power is configured to one
Or the temperature of multiple internal storage areas is maintained at a period of time in predetermined temperature range.For example, in certain embodiments, work as ring
When border external temperature is between -35 DEG C and 43 DEG C, it is impossible to which the refrigerating plant for obtaining electric power is configured in one or more
The temperature of portion storage area is maintained in predetermined temperature range at least one week.For example, in certain embodiments, when environmental externality temperature
When degree is between -35 DEG C and 43 DEG C, it is impossible to which the refrigerating plant for obtaining electric power is configured to one or more internal reservoir area
The temperature in domain is maintained in predetermined temperature range at least two weeks.For example, in certain embodiments, when ambient outside air temperature is -35
DEG C and 43 DEG C between when, it is impossible to the refrigerating plant for obtaining electric power is configured to the temperature of one or more internal storage area
It is maintained in predetermined temperature range at least 30 days.For example, in certain embodiments, when ambient outside air temperature is less than -10 DEG C, no
The refrigerating plant that electric power can be obtained is configured to the temperature of one or more internal storage area being maintained at predetermined temperature model
Enclose interior a period of time.
As used herein, " refrigerating plant " refers to the device with internal storage area, device at least part time profit
With external power source, and it is configured to continue storage material for a period of time at temperatures lower than ambient temperature.In some implementations
In example, refrigerating plant includes two internal storage areas.In certain embodiments, refrigerating plant includes many more than two internal reservoir
Region.In certain embodiments, refrigerating plant includes two or more internal storage areas, and each storage area is configured to
Internal temperature is maintained within the scope of different temperature.Generally, refrigerating plant includes active cooling systems.In some embodiments
In, refrigerating plant is powered by municipal power supply.In certain embodiments, refrigerating plant is powered by solar energy system.In some implementations
In example, refrigerating plant is battery powered.In certain embodiments, refrigerating plant is powered by generator (such as diesel-driven generator).
In certain embodiments, refrigerating plant is refrigerator.Generally refrigerator is calibrated so that the article of internal reservoir to be protected
Hold more than zero degree but less than in the predetermined temperature range of latency environment temperature.For example, refrigerator is designed to internal temperature
It is maintained between 1 DEG C and 4 DEG C.In certain embodiments, refrigerating plant is typical refrigerator.Generally refrigerator is calibrated,
So that the article of internal reservoir is maintained at less than zero but higher than within the temperature range of low temperature.For example, refrigerator be designed to by
Internal temperature is maintained between -23 DEG C and -17 DEG C, or can for example be designed to internal temperature being maintained at -18 DEG C and -15 DEG C
Between.In certain embodiments, refrigerating plant includes refrigerating chamber and refrigerating chamber.For example, some refrigerating plants include lasting keep
First internal storage area of refrigerating temperature range and the second internal storage area for persistently keeping cryogenic temperature scope.
In certain embodiments, refrigerating plant is configured to the internal storage area of refrigerating plant being maintained at predetermined temperature
In the range of.As used herein, " predetermined temperature range " refers to be determined in advance as the specific of the refrigerating plant in use
The internal storage area of embodiment is desired temperature range.Predetermined temperature range is that the internal storage area of refrigerating plant is being made
The equilibrium temperature scope kept the temperature at during use in it of device for cooling.For example, in certain embodiments, refrigerating plant quilt
It is configured to the internal storage area of refrigerating plant being maintained in about 2 DEG C to 8 DEG C of predetermined temperature range.For example, in some realities
Apply in example, refrigerating plant is configured to the internal storage area of refrigerating plant being maintained at about 1 DEG C to 9 DEG C of predetermined temperature range
It is interior.For example, in certain embodiments, refrigerating plant is configured to the internal storage area of refrigerating plant being maintained at about -15 DEG C
To -25 DEG C of predetermined temperature range.For example, in certain embodiments, refrigerating plant is configured to the inside of refrigerating plant
Storage area is maintained in about -5 DEG C to -10 DEG C of predetermined temperature range.
For example, in certain embodiments, refrigerating plant is configured to when the electric power of refrigerating plant is unavailable, refrigeration is filled
The internal storage area put is maintained in predetermined temperature range at least 50 hours.For example, in certain embodiments, refrigerating plant quilt
It is configured to, when the electric power of refrigerating plant is unavailable, the internal storage area of refrigerating plant is maintained in predetermined temperature range extremely
It is few 100 hours.For example, in certain embodiments, refrigerating plant is configured to, when the electric power of refrigerating plant is unavailable, to freeze
The internal storage area of device is maintained in predetermined temperature range at least 150 hours.For example, in certain embodiments, refrigeration dress
Put and be configured to, when the electric power of refrigerating plant is unavailable, the internal storage area of refrigerating plant is maintained at into predetermined temperature range
Inside at least 200 hours.
In certain embodiments, refrigerating plant is configured to when the electric power of refrigerating plant is unavailable, in longer time
Inside passively one or more internal storage area is maintained in predetermined temperature range.For example, in certain embodiments, system
Device for cooling is configured to when refrigerating plant can use minimum electric power, by one or more internal reservoir in longer time
Region is maintained in predetermined temperature range.For example, in certain embodiments, refrigerating plant is configured to when refrigerating plant can be with low
During piezoelectric forces, one or more internal storage area is maintained in predetermined temperature range in longer time.For example,
In some embodiments, refrigerating plant is configured to when refrigerating plant can use variable power, by one in longer time
Or multiple internal storage areas are maintained in predetermined temperature range.For example, in certain embodiments, refrigerating plant includes variable work(
Rate control system.For example, in certain embodiments, refrigerating plant includes battery.In certain embodiments, refrigerating plant is not having
Passively operated in the case of electric power, and do not include battery.
It can be used as Referring now to Figure 1, showing for introducing one or more processes as described herein and/or device
The example of refrigerating plant hereafter.Fig. 1 depicts refrigerating plant 100, and the refrigerating plant includes the single storage inside refrigerating plant
Deposit region.Single door 120 substantially opens the single storage area of refrigerating plant to the external user of device.The user of device
Door 120 can be opened using handle 125.The forward face that refrigerating plant 100 is depicted as the outer wall of its housing 110 is visible.
In some embodiments, single door be present, the single door provides a user multiple storage areas in refrigerating plant, such as kept
The path of the first storage area and the second storage area being maintained in the range of second temperature in the first temperature range.Fig. 1
The refrigerating plant 100 of middle description includes top doors 140, and the top doors are reversibly attached to refrigerating plant 100 by breech lock 150
Upper surface.Top doors 140 can for example be configured to permit the impermeable container of the liquid touched in refrigerating plant 100,
The impermeable container of the liquid is oriented to adjacent with the inner surface of top doors 140.Some embodiments of refrigerating plant can quilt
It is configured to be operated by such as municipal power supply of power supply or solar electric power system power supply.For example, the refrigerating plant shown in Fig. 1
100 embodiment includes the power line 130 being connected with power supply.
In certain embodiments, refrigerating plant is included in the impermeable container surroundings of liquid and formed outside refrigerating plant
Housing, at least one set of evaporator coil, heat conductor and storage area.In certain embodiments, refrigerating plant includes surrounding liquid
The housing of impermeable container, one group of evaporator coil, the one or more walls for essentially forming storage area and heat transfer system
System, and the door in housing, the door are oriented to reversibly allow user to touch storage area.For example, in the implementation shown in Fig. 1
In example, housing 110 surrounds the outside of the visible parts of refrigerating plant.Housing can be made up of rigid material, such as glass fibre material
Material or metal, such as stainless steel or aluminium.
In certain embodiments, refrigerating plant includes the thermal insulation barriers in housing.In certain embodiments, refrigerating plant
Including being oriented to the thermal insulation barriers adjacent with the outer surface of storage area.The size and dimension of the thermal insulation barriers be able to can not ooze with liquid
The outer surface of saturating wall of a container reversibly coordinates with the outer wall for essentially forming storage area.The thermal insulation barriers have enough thickness
Degree, quality and composition, with the expection usage scenario in a particular embodiment and for the embodiment, by from storage area
Heat leak, which is reduced to it, passes through the heat transfer of heat transfer system level in a basic balance.For example, in certain embodiments, refrigerating plant
There is about 30W heat leak with thermal insulation barriers.For example, in certain embodiments, the heat of refrigerating plant and thermal insulation barriers with about 25W is let out
Leakage.For example, in certain embodiments, the heat leak of refrigerating plant and thermal insulation barriers with about 20W.For example, in certain embodiments,
Refrigerating plant and thermal insulation barriers have about 15W heat leak.For example, in certain embodiments, refrigerating plant and thermal insulation barriers have about
10W heat leak.For example, in certain embodiments, thermal insulation barriers are made up of foam insulation.For example, in certain embodiments, should
Thermal insulation barriers are made up of vacuum insulation panel (" VIP ").
Fig. 2 depicts refrigerating plant 100, and the refrigerating plant includes double storage areas inside refrigerating plant.Refrigerating plant
100 be depicted as its outer wall 110 forward face it is visible.First 120 substantially by the first storage area of refrigerating plant to dress
The external user put is opened.The user of device can open first 120 using handle 125.In certain embodiments, first
Storage area can be configured to internal temperature being kept above freezing point (i.e. 0) ten degrees centigrade or lower.In certain embodiments,
First storage area can be configured to internal temperature being maintained between e.g., from about 0 degree Celsius and about 10 degrees Celsius.
In certain embodiments, the first storage area can be configured to internal temperature being maintained at e.g., from about 1 degree Celsius and about 9 degrees Celsius
Between.In certain embodiments, the first storage area can be configured to internal temperature being maintained at e.g., from about 2 Celsius
Degree with about 8 degrees Celsius between.Embodiment shown in Fig. 2 also includes second 200 with handle 210, with to
User provides the path to the second storage area inside refrigerating plant.In certain embodiments, the second storage area can by with
It is set to the internal temperature for keeping below 20 degree of freezing point or more.In certain embodiments, the second storage area can be configured to
Internal temperature is maintained between e.g., from about -15 degrees Celsius and about -20 degrees Celsius.In certain embodiments, second
Storage area can be configured to internal temperature being maintained between e.g., from about -10 degrees Celsius and about -5 degrees Celsius.
In some embodiments, the second storage area can be configured to keep e.g., from about 0 degree Celsius of internal temperature.In some embodiments
In, the second storage area may be configured for storing and freeze one or more phase-change material refrigerant system receivers, such as medical
Ice bag.The refrigerating plant 100 shown in Fig. 2 includes top doors 140, and the top doors are reversibly attached to refrigeration by breech lock 150
The upper surface of device 100.The liquid that top doors 140 can for example be configured to permit user to touch in refrigerating plant 100 can not ooze
Saturating container, the impermeable container of the liquid are located near the inner surface of top doors 140.Some embodiments of refrigerating plant can
It is configured to be operated by such as municipal power supply of power supply or solar electric power system power supply.For example, the refrigeration dress shown in Fig. 2
Put the power line 130 that 100 embodiment includes being connected with power supply.
In certain embodiments, refrigerating plant includes:Essentially form the one or more of the impermeable container of liquid
Wall, the impermeable container of the liquid are configured to phase-change material being maintained inside refrigerating plant;At least one active
Refrigeration unit, at least one active refrigeration unit include one group of evaporator coil, and the evaporator coil, which is located at liquid, to be oozed
In the inner space of saturating container;Essentially form one or more walls of storage area;Heat transfer system, the heat transfer system bag
Include:First group of impermeable structure of steam, the hollow interior space of first group of impermeable structure of steam are connected and form condenser, should
One or more walls of the condenser container impermeable with essentially forming liquid are in and thermally contacted;Second group of impermeable steam knot
Structure, the hollow interior space of second group of impermeable structure of steam are connected and form evaporator, and the evaporator is with essentially forming
One or more walls of storage area are in thermo-contact;And connector, the hollow interior space of the connector are attached to condensation
Both device and evaporator, the connector form liquid between the hollow interior space of condenser and the hollow interior space of evaporator
Body and vapor flow paths.
Fig. 3 depicts refrigerating plant 100, and the refrigerating plant includes being configured to phase-change material being maintained at refrigerating plant
The impermeable container 300 of liquid inside 100 and storage area 310.For illustrative purposes, the feature of refrigerating plant 100
Structure, such as housing of refrigerating plant 100, door and/or lid are not described in figure 3 (see, e.g. Fig. 1 and Fig. 2), but implement
Example can include these and other feature structures.In certain embodiments, the impermeable container of liquid is also steam tight.
In certain embodiments, as shown in figure 3, the impermeable container 300 of liquid is positioned in the storage area in refrigerating plant 100
310 top.In certain embodiments, the impermeable container of liquid includes:Aperture, size that the aperture has, shape and
Position allows one group of evaporator coil to spread all over the aperture;And between the surface in the aperture and the surface of this group of evaporator coil
The impermeable sealing of liquid.In certain embodiments, the impermeable container of liquid includes:Aperture, what the aperture had
Size, shape and position allow one group of evaporator coil to spread all over the aperture;And on the surface in the aperture and this group of evaporator plate
Steam tight sealing between the surface of pipe.
In certain embodiments, one or more walls essentially form the impermeable container of liquid, and the liquid is not
Permeable container is configured to phase-change material being maintained inside refrigerating plant.The impermeable container of shown liquid
300 are made up of multiple flat walls 320, so as to form the rectangular parallelepiped structure with solid wall and bottom, and most at top surface
Aperture forms open top section.Multiple flat walls 320 of the impermeable container 300 of liquid in its edge and liquid not
Permeable sealing seals at a generally normal anglely.In certain embodiments, the one of the impermeable container of liquid is essentially formed
Individual or multiple walls include multiple layers, and condenser be oriented to it is adjacent with least one layer of surface in multiple layers.One
In a little embodiments, essentially forming one or more walls of the impermeable container of liquid includes multiple layers, one of them or it is more
At least one layer in individual layer includes non-planar regions to form multiple sides of the impermeable container of liquid.In some implementations
In example, essentially forming one or more walls of the impermeable container of liquid is included with position, the chi for forming passage opening
The very little and aperture of shape.Allow user's inspection for example, passage opening can have, supplement and/or change the impermeable appearance of liquid
The inner space of the device and its size of content, shape and position.In certain embodiments, it is impermeable to essentially form liquid
One or more walls of container include with the position, the aperture of size and dimension that reversibly coordinate with door.Some embodiments
Including the path lid in the top surface of the impermeable container of liquid, the path lid is configured for user and touches liquid not
The inner space of permeable container.
Some embodiments include the phase-change material in the impermeable container of liquid.For example, in the implementation shown in Fig. 3
In example, phase-change material can be included in the impermeable container 300 of liquid in the position 305 of this group of refrigeration coil 330.
As used herein, " phase-change material " is the material for having high latent heat, and it can store and discharge heat while physics phase is changed
Energy.Selection for the phase-change material of embodiment depends on factor considered below, including the fusing point of the latent heat of material, material, material
The boiling point of material, store in embodiment the volume of material needed for the heat energy of scheduled volume, the toxicity of material, the cost of material and
The combustibility of material.Depending on embodiment, phase-change material can be solid, liquid, semisolid or gas during use.Example
Such as, in certain embodiments, phase-change material includes water, methanol, ethanol, Sodium Polyacrylate/polysaccharide material or salt hydrate.One
In a little embodiments, for example, due to the fusing point of pure water ice be 0 DEG C physical characteristic, including most of volume is as pure water ice
Phase-change material is preferable.In certain embodiments, it may for example comprise most of volume is as the phase-change material of salt solution/salt ice
Preferably as molar concentration and content based on salt in salt solution/salt ice, the fusing point of salt ice can be calibrated to less than 0 DEG C.One
In a little embodiments, for example, phase-change material is configured to freeze when less than -20 DEG C.In certain embodiments, for example, phase transformation material
The point for expecting to be configured between 1 DEG C and 3 DEG C freezes.In certain embodiments, phase-change material at ambient temperature (such as 25
DEG C) it is liquid form.
Refrigerating plant 100 includes active refrigeration unit, and the active refrigeration unit includes one group of evaporator coil 330.The group
Evaporator coil 330 is located in the inner space of the impermeable container 300 of liquid.In certain embodiments, refrigerating plant bag
Two active refrigeration units are included, each active refrigeration unit includes the one group of evaporator coil of its own.For example, two groups of evaporators
Coil pipe can be located in the impermeable container of the single liquid in refrigerating plant.For example, every group of evaporator coil can be located at it is single
In the impermeable container of two liquid in refrigerating plant, and every group of refrigeration coil can be filled by being attached to each active refrigeration
The Single Controller put independently controls.In certain embodiments, refrigerating plant includes single active refrigeration unit, the single master
Dynamic refrigeration unit includes two groups of evaporator coils.For example, every group of evaporator coil can be located at two liquid in single refrigerating plant
In the impermeable container of body, and such as using the heat control device reversibly controlled such as valve system, every group of chill plate
Pipe can be independently controlled.In certain embodiments, refrigerating plant includes active refrigeration unit, and the active refrigeration unit includes master
Dynamic refrigeration system.In certain embodiments, refrigerating plant includes active refrigeration unit, and the active refrigeration unit includes electric compressor
System.
In certain embodiments, refrigerating plant includes active refrigeration unit, and the active refrigeration unit includes compressor.Fig. 3
Shown embodiment includes being operatively attached to the compressor 335 of this group of evaporator coil 330.In certain embodiments, make
Device for cooling includes controller.Embodiment shown in Fig. 3 include being positioned at compressor 335 connected with the wire rod to power supply 395 it
Between controller 380.According to embodiment, controller can include the electronic controller with circuit, the circuit be configured to by
Control signal is sent to other feature structures of compressor and/or device.According to embodiment, controller can include having circuit
Electronic controller, the circuit is configured to from other of compressor and/or device feature structure such as sensor or monitor
Reception signal.In certain embodiments, controller includes wireless signal generator, such as celluler radio transmitter.One
In a little embodiments, controller includes the circuit for data acquisition, is such as supervised from one or more sensors, and/or power
Survey the data of device.In certain embodiments, controller includes being used for temperature controlled circuit, such as by being operationally attached
Compressor send control signal.In certain embodiments, controller includes the circuit for temperature display, such as by can
The display unit being operatively attached sends control signal.In certain embodiments, controller includes:For being passed from one or more
Sensor receives the circuit of data;For the circuit for the received data for assessing one or more predetermined set values;For in response to
Meet that institute's detected value of one or more predetermined set values sends the circuit of control signal;And it will be transmitted outside received data
To the circuit of refrigerating plant.For example, in certain embodiments, controller can be configured to:Number is received from multiple temperature sensors
According to;Assess relative to predetermined maximum and/or the received data of minimum value;In response to detected maximum and/or most
Small value sends control signal;And the signal including received data is sent to monitoring system.
In certain embodiments, it is contemplated that refrigerating plant is by for such as due to the cyclic breakdown or solar energy of municipal power network
Unavailability and with intermittent electricity availability position.Refrigerating plant can include for example being attached at least one active
The battery of refrigeration unit.Refrigerating plant is configured to the power of battery and conditionally runs active refrigeration unit, such as
In the case of lacking electric power in predetermined amount of time (such as 2 days, 3 days or 4 days).For example, if located in the temperature in refrigerating plant
Sensor detects the temperature higher than predetermined threshold levels, then refrigerating plant can be configured to conditionally using the power of battery come
Run active refrigeration unit.
In certain embodiments, it is contemplated that refrigerating plant is used for variable power availability such as with changing over time
The position of the power supply of voltage.Refrigerating plant can include the variable power control for being for example attached at least one active refrigeration unit
System.In certain embodiments, variable power control system is designed to receive from not homologous electric power, such as 120,
230VAC and 12 to 24VDC.In certain embodiments, variable power control system can include power converter.For example, power
Converter can be configured to AC input power being converted to DC.For example, power converter can be configured to variable AC input work(
Rate is converted to 220V AC.In certain embodiments, variable power control system includes automatic voltage regulator.For example, it is configured
Refrigerating plant into the position bad for power network function can be configured to receive the power in the range of 90V AC to 250V AC,
And stable 220V AC are converted the input into using integrated automatic voltage regulator.Refrigerating plant can include one or more
Individual voltage and/or current sensor, these sensors are positioned and configured to detect the supply of electric power to refrigerating plant.Sensor
Attach to controller, and/or transmitter unit, and/or memory cell.Refrigerating plant can include voltage-stablizer.Refrigeration dress
Power adjustment unit can be included by putting.Some embodiments of refrigerating plant are designed to come from power network (such as city being with or without
Political affairs power network) conventional electric power in the case of operate.For example, refrigerating plant can be configured to allow to be supplied by power network when power network can use
Electricity and operated, and in other times, powered by stand-by power supply such as photovoltaic cells and operated.For example, refrigerating plant
It can be configured in response to the input from user, it is allowed to powered by power network and operated, and in response to other inputs, it is all
Operated such as the availability of solar energy by stand-by power supply (such as photovoltaic cells) power supply.For example, some embodiments include quilt
It is configured to provide the photovoltaic cells of electric power to battery.For example, some embodiments include being configured to directly providing to refrigerating plant
The photovoltaic cells of electric power.Some embodiments include the photovoltaic cells with 50 watts of (W) peak powers.Some embodiments include tool
There are the photovoltaic cells of 100 watts of (W) peak powers.Some embodiments include the photovoltaic list with 150 watts of (W) peak powers
Member.Some embodiments include the photovoltaic cells with 200 watts of (W) peak powers.Some embodiments are configured to according to available
Property and user preference utilize from not homologous energy.For example, some embodiments include being used to receive the electricity from photovoltaic cells
The circuit of power, and the electric power received is conducted directly to active cooling systems or is directed to the controller of battery.The selection
It can be instructed by user by interface, or based on preassigned (time, external temperature in such as one day or from refrigeration
The temperature informations of one or more temperature sensors in device) control.Some embodiments include controller, the controller quilt
It is configured to the situation of detected refrigerating plant.Some embodiments include circuit, and the circuit is configured to pass through work(
Rate inverter from the battery powered of 12 volts (V), rated power in 1.5KW between 2.0KW, by the existing active of refrigerating plant
Refrigeration system starts and it is powered.Some embodiments are configured in response to the letter of the temperature sensor in storage area
Breath, powered under the control of the controller from sealed cell thermoelectric unit.For the internal reservoir area of wherein temperature controlled vessels
At 15 liters (L) to the embodiment in the range of 50L, 50W peak values photovoltaic cells be able to should continue to keep between about 2 DEG C to 8 DEG C in domain
Predetermined temperature range, wherein the photovoltaic cell maximum output time of every 24 hours be one hour.The system can also include filling
Pyroelectric monitor device, the charging monitor are configured to ensure that battery is not exhausted into less than predetermined threshold value, such as its electricity
80%, to extend battery life during use.
Some embodiments include being operably coupled to the power monitor of refrigerating plant.Some embodiments include being positioned at
Power monitor between power supply and the miscellaneous part of refrigerating plant.Some embodiments include being positioned at after voltage roof-cut resistence
Power monitor.Some embodiments include the power monitor being positioned between power stabilizer and compressor.For example, Fig. 3
Shown in embodiment include be operably coupled to power supply wire rod connection 395 power monitor 390.Some embodiments
Power monitor including being operatively attached to controller.For example, Fig. 3 depicts the embodiment for including power monitor 390,
The power monitor is operably coupled to controller 380 with wire rod connector.Power monitor can include power samples list
Member, such as 1kHz power samples units.Power monitor can include power samples unit, such as 2kHz power samples units.
Power monitor can include power samples unit, such as 3kHz power samples units.Power monitor can be adopted including power
Sample unit, such as 4kHz power samples units.Power monitor can include power samples unit, such as 5kHz power samples lists
Member.Power monitor can include surge protector, the surge protector can be configured to according to refrigerating plant expectedly
Surge situation expected from reason using area is operated.Power monitor can include high pressure cutout switch, such as be configured to
The high pressure cutout switch activated under the predetermined maximum voltage of refrigerating plant.Power monitor can include low voltage cutoff and switch,
Such as it is configured to the low voltage cutoff switch activated under the predetermined minimum voltage of refrigerating plant.Power monitor can include steady
Depressor.Power monitor can include battery.For example, power monitor can include battery, the battery is configured to provide foot
Enough electric power has a power failure and restored electricity to monitor.
In certain embodiments, refrigerating plant includes:The Part I of one group of evaporator coil, the Part I are positioned
Outer surface into one or more walls of the container impermeable with essentially forming liquid is adjacent;The of this group of evaporator coil
Two parts, the Part II are located in the inner space of the impermeable container of liquid;And there is encapsulating to use for framework, the framework
In the size and dimension of one or more containers of freezing phase-change material, at the Part I of the framework and this group of evaporator coil
In thermo-contact.In certain embodiments, refrigerating plant includes:First group of evaporator coil, first group of evaporator coil are determined
Position is adjacent into the outer surface of one or more walls of the container impermeable with essentially forming liquid;It is impermeable positioned at liquid
Interior of the container in second group of evaporator coil;And framework, the framework have encapsulating for freezing phase-change material
The size and dimension of one or more containers, first group of evaporator coil of the framework and this are in and thermally contacted.
In the embodiment shown in fig. 3, refrigerating plant 100 includes essentially forming the one or more of storage area 310
Wall 340.These walls may, for example, be substantially flat, and it is attached to be approximately at right angles to each other.Storage area can form rectangular
Body structure, as shown in Figure 3.Storage area can include aperture, and the aperture is oriented to and reversible with door through being sized to
Ground coordinates (see, e.g., Fig. 1 and Fig. 2).Storage area can include internal shelf, rack and similar feature structure.
In some embodiments, storage area is configured for medical storage, such as storage for vaccine vial and/or pharmaceutical pack
Deposit.
In certain embodiments, refrigerating plant includes heat transfer system, and the heat transfer system includes:First group of impermeable steam knot
Structure, the hollow interior space of first group of impermeable structure of steam are connected and form condenser, and the condenser is with essentially forming
One or more walls of the impermeable container of liquid are in thermo-contact;Second group of impermeable structure of steam, second group of impermeable steaming
The hollow interior space of depressed structure is connected and forms evaporator, the evaporator and essentially forms one or more of storage area
Individual wall is in thermo-contact;And connector, the hollow interior space of the connector are attached to both condenser and evaporator, the company
Connect device and liquid and vapor flow paths are formed between the hollow interior space of condenser and the hollow interior space of evaporator.By
The liquid and vapor flow paths that connector is formed allow the downward liquid flow in single connector and steam flows up.
In some embodiments, single connector be present, the single connector evaporator hollow interior space and condenser it is hollow
Two-way liquid and vapor flow paths are formed between inner space.In certain embodiments, two or more connectors be present,
Wherein each connector independently forms two-way between the hollow interior space of evaporator and the hollow interior space of condenser
Liquid and vapor flow paths.In figure 3 in shown embodiment, refrigerating plant includes heat transfer system, and the heat transfer system includes
It is connected and forms first group of impermeable structure of steam of condenser 350, the condenser is impermeable with essentially forming liquid
One or more walls 320 of container 300 are in thermo-contact.Fig. 3 also illustrates the refrigerating plant including heat transfer system, the heat transfer system
System includes being connected and forming second group of impermeable structure of steam of evaporator 360, and the evaporator is with essentially forming storage area
310 one or more walls 340 are in thermo-contact.Embodiment shown in Fig. 3, which includes having, is attached to condenser 350 and evaporator
The connector 370 of 360 both hollow interior spaces, hollow interior space and evaporator of the connector 370 in condenser 350
Liquid and vapor flow paths are formed between 360 hollow interior space.In certain embodiments, heat transfer system includes continuous
Hollow interior space substantially sealed off, and the evaporation liquid being sealed in continuous hollow interior space substantially sealed off.Such as
Shown in Fig. 3, in certain embodiments, connector is the structure of substantial linear, when refrigerating plant, which is in, uses position, the knot
Structure is oriented to substantially vertical.
In certain embodiments, the evaporator of heat transfer system and/or condenser are connected to the impermeable container of liquid
Multiple walls and storage area.See, for example, Fig. 7.In certain embodiments, first group for being connected and forming condenser is airtight
Two or more walls of the structure container impermeable with liquid are adjacent and in thermally contacting.For example, condenser can be by melting
The multiple hollow tubes being combined are made, and two or more walls for being oriented to the container impermeable with liquid are in
Thermo-contact.For example, condenser can form the single roll-in of multiple walls of the impermeable container of liquid by being bent and positioning
The structure formed is engaged to be made.In certain embodiments, it is connected and forms second group of impermeable structure of steam and the storage of evaporator
Deposit two or more walls adjoining in region and in thermo-contact.For example, evaporator can be multiple hollow by what is fused together
Pipe is made, and is oriented to be in two or more walls of storage area and thermally contacts.For example, evaporator can be by being bent
The structure formed with positioning with forming the single roll bond of multiple walls of storage area is made.
In certain embodiments, heat transfer system forms unidirectional heat conductor in refrigerating plant.As used herein, " unidirectional heat
Conductor " refers to be configured to permit the structure for carrying out heat transfer in one direction along its long axis, while substantially suppresses
Along the heat transfer of identical long axis in the opposite direction.The design and realization of unidirectional heat conductor are to promote heat energy (example
Such as heat) along the transmission on a direction of unidirectional heat conductor length, while substantially suppress along the length of unidirectional heat conductor
Transmission in opposite direction.In certain embodiments, for example, unidirectional heat conductor includes linear heat pipe device.In some embodiments
In, for example, unidirectional heat conductor includes thermosyphon.In certain embodiments, for example, unidirectional heat conductor includes thermal diode device
Part.For example, unidirectional heat conductor can include the hollow tube being made from a material that be thermally conductive, the hollow tube sealed at every end and including
The evaporation liquid of volatile liquid form and gas form.For example, unidirectional heat conductor can include having inside substantially sealed off
The tubular structure in region and the evaporative fluid being sealed in interior zone substantially sealed off.In certain embodiments, for example, unidirectionally
Heat conductor is configured to a diameter of 1/2 inch of copper pipe.In certain embodiments, unidirectional heat conductor can be used in whole or in part
Roll bond technology is made.In certain embodiments, unidirectional heat conductor can include interior geometry, the interior geometry
It is positioned and configured to the inner surface distribution evaporation liquid along unidirectional heat conductor.For example, unidirectional heat conductor can include having
Groove, passage have size, shape and the similar structures of position that evaporation liquid is distributed along inner surface.In some embodiments
In, unidirectional heat conductor can include internal capillary structure at whole internal or internal specific region.In certain embodiments, it is single
It can include internal sintering structure at whole internal or internal specific region to heat conductor.
In certain embodiments, unidirectional heat conductor can include multiple hollow branched structures, each hollow branched structure that
This steam connects, each the evaporation liquid including volatile liquid form and gas form.Some embodiments include multiple unidirectional
Heat conductor.For example, some embodiments include the multiple unidirectional heat conductors arranged along single diameter parallel.For example, some are implemented
Example is included in the multiple unidirectional heat conductors used in the different zones of refrigerating plant, and multiple unidirectional heat conductors act as independently of one another
With.Some embodiments include including multiple unidirectional heat conductors of identical evaporation liquid.Some embodiments include including different evaporations
Multiple unidirectional heat conductors of liquid, such as in the different zones of refrigerating plant.
Unidirectional heat conductor is configured so that the liquids and gases form of evaporation liquid will be in thermal equilibrium state.Unidirectional heat
Conductor is substantially evacuated during manufacture, is then sealed with air-locked seal so that be present in unidirectional heat conductor
Essentially all of gas is all the gas form of existing liquid.Steam pressure in unidirectional heat conductor is substantially entirely liquid
The steam pressure of body, so that total steam pressure is substantially equal to the partial pressure of liquid.Unidirectional heat conductor includes being used to steam
The internal flow path of lotion body and its steam.In certain embodiments, unidirectional heat conductor includes being enough to make in unidirectional heat conductor
The internal flow path of the evaporation liquid two-phase flow in portion.For example, connector can include Bidirectional inner flow path.For example,
Connector can include liquid and vapor flow paths.In certain embodiments, unidirectional heat conductor can be configured to substantially
Vertical position operation, the heat transfer from lower end to upper end are risen in unidirectional heat conductor by steam and entered in upper end condensation
OK.In certain embodiments, unidirectional heat conductor includes evaporation liquid, wherein, when unidirectional heat conductor, to be in it pre- in container
During phase position, the expectation apparent height for evaporating liquid is located in the storage area of temp controlled vessel.
In certain embodiments, for example, unidirectional heat conductor includes evaporation liquid, the evaporation liquid includes one or more
Alcohol.In certain embodiments, for example, unidirectional heat conductor includes evaporation liquid, the evaporation liquid includes being typically used as refrigerant
One or more liquid.In certain embodiments, for example, unidirectional heat conductor includes water.In certain embodiments, for example, unidirectionally
Heat conductor includes evaporation liquid, and the evaporation liquid includes:R-134A refrigerants, iso-butane, methanol, ammonia, acetone, water, isobutene,
Pentane or R-404 refrigerants.
Some embodiments include the unidirectional heat conductor comprising elongate structure.For example, unidirectional heat conductor can be included substantially
The structure of tubulose.Unidirectional heat conductor can be configured to the structure of substantial linear.Unidirectional heat conductor can be configured to substantially non-
Linear structure.For example, unidirectional heat conductor can be configured to non-linear tubular structure.In certain embodiments, it is one or more
Heat-conducting unit is attached to the outer surface of unidirectional heat conductor.For example, the one or more flat structures being made from a material that be thermally conductive are (such as
Fin structure) outer surface of unidirectional heat conductor can be attached to, and be oriented to promote unidirectional heat conductor and adjacent area it
Between heat transfer.Unidirectional heat conductor can be made up of heat-conducting metal.For example, unidirectional heat conductor can include copper, aluminium, silver or gold.
In certain embodiments, unidirectional heat conductor can include substantially elongated structure.For example, unidirectional heat conductor can be with
Including substantially tubular shape structure.Substantially elongated structure includes the evaporation liquid being sealed in gas tight seal part in structure
Body.For example, unidirectional heat conductor can include the gas tight seal part of welding or crimping.In certain embodiments, liquid bag is evaporated
Include one or more of the following:Water, ethanol, methanol or butane.In embodiment evaporation liquid selection depend on
Lower factor, include the evaporating temperature of the evaporation liquid in the embodiment in specific unidirectional heat conductor structure, including unidirectional heat conductor
Interior gas pressure.The inner space of unidirectional heat conductor structure includes being less than the steam for including evaporation liquid in this embodiment
The gas pressure of pressure.When unidirectional heat conductor is positioned in temp controlled vessel with substantially vertical position, liquid is evaporated from list
Evaporated to the bottom of heat conductor, wherein the steam of gained rises to top and the condensation of unidirectional heat conductor, so as to by heat energy from list
Top is delivered to the bottom of heat conductor.In certain embodiments, unidirectional heat conductor includes a kind of structure, and the structure includes positioning
Adiabatic zone between condensation end and evaporation ends, the adiabatic zone are positioned at the impermeable container of liquid and refrigerating plant
Between storage area.
Some embodiments include being attached to the unidirectional heat conductor of heat-transfer couple block and heat pipe.The coupling block and heat pipe can be such as
It is positioned and configured to relax the heat transfer along the length of unidirectional heat conductor.
In certain embodiments, so that hollow interior space is connected and forms first group of impermeable structure of steam shape of condenser
Into branched structure.It is connected for example, Fig. 3 is illustrated and forms branch's zigzag pattern of the structure of condenser 350.For example, it
Herringbone pattern can be positioned and configured to that internal flow is uniformly distributed to form active heat transfer region.In some embodiments
In, branched structure, wherein branch are formed with first group of impermeable structure of steam that hollow interior space is connected and forms condenser
Every one end of the branch of structure is the top region of the branch.In certain embodiments, it is connected with hollow interior space
And first group of impermeable structure of steam for forming condenser forms branched structure, wherein these branches connect at the top of branched structure
Connect.In certain embodiments, at least one wall for essentially forming the impermeable container of liquid is connect by one or more roll-ins
Plywood is made.For example, one or more roll bond plates can be made into including first group of impermeable steaming with hollow interior space
Depressed structure, first group of impermeable structure of steam is connected and forms the condenser of refrigerating plant, and one or more roll-ins connect
Plywood can be integrated into the one or more walls for essentially forming the impermeable container of liquid.In certain embodiments, with
Hollow interior space is connected and forms one of first group of impermeable structure of steam of condenser and the impermeable container of liquid
Or at least one wall in multiple walls is integral.For example, can to form liquid impermeable for first group of impermeable structure of steam
A part for the roll bond structure of one or more walls of container.In certain embodiments, it is connected with hollow interior space
And at least one formed in first group of impermeable structure of steam of condenser and one or more walls of the impermeable container of liquid
Individual wall, which is in, directly to be thermally contacted.
In certain embodiments, so that hollow interior space is connected and forms second group of impermeable structure of steam shape of evaporator
Into branched structure.It is connected for example, Fig. 3 is illustrated and forms branch's zigzag pattern of the structure of evaporator 360.For example, it
Herringbone pattern can be positioned and configured to that internal flow is uniformly distributed to form active heat transfer region.In some embodiments
In, branched structure, wherein branch are formed with second group of impermeable structure of steam that hollow interior space is connected and forms evaporator
Every one end of the branch of structure is the lowermost end region of the branch.In certain embodiments, it is connected with hollow interior space
And second group of impermeable structure of steam for forming evaporator forms branched structure, wherein these branches are connected to the bottom of branched structure
Portion.In certain embodiments, at least one wall for essentially forming storage area is made up of one or more roll bond plates.Example
Such as, one or more roll bond plates can be made into including second group of impermeable structure of steam with hollow interior space, and this
Two groups of impermeable structure of steam are connected and form the evaporator of refrigerating plant, and one or more roll bond plates can be integrated
Into the one or more walls for essentially forming storage area.Roll bond plate can be made into a unit, then curve it
Or warpage is to form storage area and/or the impermeable wall of a container of liquid.In certain embodiments, with hollow interior space
At least one wall for being connected and being formed in second group of impermeable structure of steam of evaporator and one or more walls of storage area
Integrally.In certain embodiments, with hollow interior space is connected and formed second group of impermeable structure of steam of evaporator with
At least one wall in one or more walls of storage area, which is in, directly to be thermally contacted.For example, second group of impermeable structure of steam can
Be the one or more walls to form storage area roll bond structure a part.
Fig. 4 depicts the embodiment of refrigerating plant 100, and the refrigerating plant includes sensor 410, and the sensor is located at liquid
Impermeable container 300 is interior, the opening position between the inner surface of chamber wall 320 and one group of evaporator coil 330.The sensing
Device can be for example temperature sensor, such as electronic temperature transmitter.Some embodiments include:At least one sensor, this is at least
One sensor is located in the impermeable container of liquid, between one or more walls and this group of evaporator coil;And can
It is operatively attached to the controller of at least one active refrigeration unit and sensor.Sensor can utilize wireless connection operationally
It is connected to controller.Sensor can be operably coupled to controller using wire rod connector.In certain embodiments, sensor
Be configured to Fixed Time Interval (such as per hour, every 2 hours or every 3 hours) by the signal including sensing data send to
Controller.In certain embodiments, sensor is configured to Fixed Time Interval (such as per minute, every 2 minutes or every 3 points
Clock) signal including sensing data is sent to controller.In certain embodiments, sensor was configured between the set time
The signal including sensing data is sent to controller every (such as per second, every 2 seconds or every 3 seconds).In certain embodiments, sense
Device is configured to when the parameter sensed sends the signal including sensing data to control when outside particular preset value scope
Device.For example, in certain embodiments, temperature sensor is configured in response to temperature sensor and detected outside predetermined range
Temperature, such as higher than 3 degrees Celsius or less than 0 degree Celsius, and signal is sent to the controller of attachment.
In certain embodiments, controller includes being used to open and close in response to the data received from sensor actively
The circuit of refrigeration unit.For example, in the embodiment shown in fig. 4, when one group of evaporator coil 330, to be located at liquid impermeable
In container 300, and when phase-change material is located at the position 305 around this group of evaporator coil 330, refrigerating plant is calibrated to height
The work of effect ground.When active refrigeration unit is in operation, compressor 335 works to cool down this group of refrigeration coil 330, thus cools down
Phase-change material at the position 305 around this group of evaporator coil 330.Refrigerating plant 100 can be for example calibrated, with phase
Become material it is cold enough be frozen into the impermeable container 300 of liquid position (such as freezing line 400) when efficiently operate.
Temperature sensor 410, which is positioned at, expected to be freezed container 300 the and condenser 350 impermeable with liquid of line 400 and directly contacts
Wall 320 between.
Some embodiments include heat transfer system, and the heat transfer system is calibrated in the impermeable container of liquid
When phase-change material is maintained in predetermined temperature range, the internal temperature of storage area is maintained within the scope of predetermined temperature.Example
Such as, refrigerating plant can include enough heat-insulated, wherein in expected ambient temperature range, heat transfer system will with from storage
The equal speed of heat leak for depositing region removes heat from storage area, and therefore passively protects the internal temperature of storage area
Hold in preset temperature range.The factor that the calibration of heat transfer system includes includes being made into the physical of the material of heat transfer system
Evaporation liquid, heat transfer system in matter (such as heat conductivility), heat transfer system is impermeable relative to storage area and liquid
The phase-change material used in the position of container and configuration, and the impermeable container of liquid.
Some embodiments include:At least one sensor, at least one sensor are located at the impermeable container of liquid
It is interior, between one or more walls and this group of evaporator coil;And it is operatively attached at least one active refrigeration unit
With the controller of sensor.Some embodiments include:It is oriented at least one sensor adjacent with the inwall of storage area;
And it is operatively attached to the controller of at least one active refrigeration unit and sensor.Some embodiments include:It is positioned
Into at least one sensor adjacent with the evaporator of heat transfer system;And it is operatively attached at least one active refrigeration list
The controller of member and sensor.Some embodiments further comprise for beating on and off in response to the data received from sensor
Close the circuit of at least one active refrigeration unit.For example, temperature sensor can be located in the impermeable container of liquid, and can
Controller is operably connected to, the controller is configured to receive the signal from temperature sensor, and in response to from temperature
The received signal of sensor is spent, control signal (such as ON/OFF control signal) is sent at least one active refrigeration unit.
In embodiment, the impermeable container of liquid can be configured to include water as phase-change material, and the temperature sensor quilt
Positioning and calibrate to detect whether water freezes or close to freezing (such as the temperature range between 2 degrees Celsius and -1 degree Celsius
It is interior).Being attached to the controller of temperature sensor can include being configured to when received data instruction solidification point such as 0 is Celsius
The circuit of " closing " control signal is sent when spending or be lower to active refrigeration unit.Controller, which may further include, to be configured to
" opening " is sent when received data indicates such as 2 degrees Celsius or higher of warm enough temperature to active refrigeration unit to control
The circuit of signal.
Some embodiments include heat transfer system, and the heat transfer system allows container impermeable from storage area to liquid
Variable heat flux.Some embodiments include the heat transfer system with least one heat control device for being connected to connector, the thermal control
Device processed is positioned and configured to the size of the reversibly hollow interior space of control connector.Pass through reversibly control connector
Hollow interior space size, thus it is possible to vary the liquid of evaporation liquid and the amount of steam stream in heat transfer system, and therefore change
Become heat flow.
As used herein, " heat control device " is to be positioned and configured to the heat transfer system by between evaporation ends and condensation end
Unite to adjust the device of flowing of the evaporation liquid under liquid or vapor state.Heat control device changes and matched somebody with somebody in response to stimulation
Put, so as to change the heat transfer along whole attached heat transfer system.In certain embodiments, heat control device is with binary condition
Operation, opens or closes the flow path in heat transfer system.In certain embodiments, heat control device operates in an analog fashion,
Plurality of possible state opens and closes flow path in heat transfer system to different levels.For example, heat control device
The valve with the limited configuration of some can be included.For example, heat control device may include valve, the valve can stably be set
To multiple positions, including flow through valve flow restriction be 20%, the flow restriction that flows through valve is 30%, flows through the flow restriction of valve
For 40%, the flow restriction that flows through valve be 50%, the flow restriction that flows through valve is 60%, the flow restriction that flows through valve is 70%,
The flow restriction for flowing through valve is 80%.For example, heat control device can include the valve as magnetic valve.Heat control device passes through control
The liquid flowing of system evaporation can increase or decrease the heat energy by heat transfer system transmission.For example, heat control device can be configured
The flowing of the evaporation liquid in liquid or steam condition is adjusted by heat transfer system into response to temperature.In some implementations
In example, heat control device is passive device.For example, passive heat control device can include bimetallic element, the bimetallic element
The temperature change that is configured in heat transfer system and change position.In certain embodiments, heat control device is active dress
Put, it is all to operate and the active control of controlled device if desired for electric power.For example, heat control device can include in heat transfer system
Portion (such as in connector) can electrically operated valve, be attached to the valve of controller and the power supply outside heat transfer system.
For example, in certain embodiments, heat control device includes valve (such as globe valve), the motor for being operably coupled to valve and can
It is operably connected to the battery of motor.In certain embodiments, heat control device is fully located at the interior of modulated heat transfer system
Portion.In certain embodiments, heat control device is positioned partially at the inside of modulated heat transfer system and is positioned partially at it
Outside, such as including one or more power couplers or controlling feature structure.
For example, Fig. 5 depicts the embodiment of the heat control device 500 of the connector 370 including being attached to heat transfer system.
In illustrated embodiment, heat control device 500 includes valve, and the valve is with the reversibly steam and flow of fluid in control connector 370
Mode position and attach, thus adjust heat transfer system thermodynamics characteristic.In certain embodiments, the valve operationally connects
It is connected to controller, and circuit of the controller including being configured to send control signals to valve.For example, valve can utilize nothing
Line connection is operably coupled to controller.For example, valve can be operably coupled to controller using wire rod connector.Example
Such as, controller can include being configured in response to be received from the sensor in the impermeable container of liquid by controller
Data and send control signals to the circuit of valve.For example, controller can include be configured to by controller send to
The control signal of compressor mutually sends the circuit of control signal to valve in phase.In certain embodiments, heat control device is nothing
Source device, and controller will not be operably coupled to.For example, heat control device can include a kind of mechanism, mechanism warp
Calibration opens and closes the valve for being attached to connector with the temperature in response to connector.
Some embodiments include being oriented to the heating element heater adjacent with the condenser of heat transfer system, wherein the heating element heater
It is configured to reversibly and controllably provide heat to condenser, to prevent condenser to be cooled to less than predetermined minimum temperature.
For example, heating element heater can include electrical heating elements in certain embodiments, the heating element heater is operably coupled to controller
And it is configured in response to the control signal sent from controller.Controller, which may be configured to receive, comes from temperature sensor
Signal, and in response to temperature sensor data and to heating element heater send control signal.For example, one embodiment can be with
Including being oriented to the temperature sensor adjacent with evaporator, wherein the temperature sensor transmits data to controller, and
Controller sends control signals to heating element heater in response to the data received from temperature sensor.In certain embodiments, control
Device processed may be configured to receive the data from active refrigeration unit, and the number in response to being received from active refrigeration unit
According to and send control signals to and be oriented to the heating element heater adjacent with the condenser of heat transfer system.For example, controller can be with
It is configured to beat after active refrigeration unit has run a period of time (such as 6 hours, 8 hours, 12 hours or 24 hours)
Open heating element heater.
In certain embodiments, refrigerating plant includes the second storage area, and second storage area is positioned and configured to
Its inner space is maintained in the range of second temperature.For example, second temperature can range below freezing point, (such as less than 0 is Celsius
Degree).In certain embodiments, second temperature scope can be between -5 degrees Celsius and -15 degrees Celsius.In some embodiments
In, second temperature scope can be between -15 degrees Celsius and -25 degrees Celsius.Refrigerating plant can for example be configured with second,
This second is oriented to touch the second storage area for user (for example, see Fig. 2).Some embodiments of refrigerating plant enter one
Step includes:Framework, opening position of the framework in condenser distal side, which is attached to, essentially forms the one of the impermeable container of liquid
The outer surface of individual or multiple walls, the framework have size and shape of the encapsulating for one or more containers of freezing phase-change material
Shape;And at least one stretcher in the framework, the stretcher be oriented as by one or more containers be pressed against one or
On multiple walls.In certain embodiments, the framework includes at least one setting element, the setting element be oriented as contributing to by
One or more containers for freezing phase-change material are positioned to adjacent with the outer surface of one or more walls.Some embodiment bags
Include, one of which evaporator coil includes the adjacent outside of the framework that is oriented on the outside of the container impermeable with liquid
Part, and the interior section in the inner space of the impermeable container of liquid.Some embodiments include independent be attached
To the two or more groups evaporator coil of compressor, wherein first group of evaporator coil is located at the impermeable container of liquid
In inner space, and the outside that second group of evaporator coil is oriented to the container impermeable with liquid is adjacent.
For example, Fig. 6 depicts embodiment, its middle frame 600 is attached to the wall 320 of the impermeable container 300 of liquid
Outer surface.The impermeable container of liquid includes interior location 305, when embodiment is in use, the inner space position
By including the phase-change material around one group of evaporator coil;For purposes of illustration, this group of evaporator plate is not shown in figure 6
Pipe.Framework, which is positioned and is oriented to, remains the container 610 for freezing phase-change material in the container 300 impermeable with liquid
Wall 320 outer surface part 640 it is adjacent.For example, for keeping the container of freezing phase-change material in certain embodiments may be used
With including the WHO standard ice bag for paying a home visit.The embodiment of framework 600 shown in Fig. 6 includes substantially flat exterior section
650, the exterior section is oriented as the container 610 for freezing phase-change material being positioned to the part with the outer surface of wall 320
640 is adjacent.Setting element 620 including two substantially flat apparent surfaces is located at the substantially flat outside portion of framework
Divide between 650 inner surface and the substantially flat outer wall for the container 610 of freezing phase-change material.In the reality shown in Fig. 6
Apply in example, framework 600 includes two unique setting elements 620.Each setting element includes contact pin 625 an end, connects
The size and dimension of piece 625 contributes to user reversibly to slide setting element relative to framework 600, adjacent so as to help to remove
Container 610.The substantially flat exterior section 650 of framework 600 can include guiding piece 630, the size of the guiding piece and
One or more contact pin of each setting element 620 of shape localization, are thus held in position phase of the element 620 relative to framework 600
To orientation.Some embodiments include one or more tension elements in framework, and the tension element is oriented and be configured to keep
The outer surface of the wall of a container impermeable with liquid for one or more containers of freezing phase-change material directly contacts.Example
Such as, framework can include internal torsion spring.For example, framework can include the half elliptic for being positioned and being oriented to holding container
Spring.
Some embodiments include framework, opening position of the framework in condenser distal side be attached to essentially form liquid can not
The outer surface of one or more walls of the container of infiltration, the framework have one or more appearances of the encapsulating for freezing phase-change material
The size and dimension of device, the wherein framework are located in the impermeable container of second liquid.The framework can be positioned and configure
The container impermeable with second liquid into the position for keeping one or more containers for freezing phase-change material connects in heat
Touch.The impermeable container of second liquid may be configured to accommodate a kind of material, and the thermal characteristics that the material has is enough to freeze
With holding the one or more containers for freezing phase-change material thermally contacted are in the impermeable container of second liquid
Freezing state.The impermeable container of second liquid may be configured to accommodate phase-change material.In certain embodiments, the second liquid
The impermeable container of body may be configured to accommodate the second phase-change material with the solidification point lower than the first phase-change material.
In certain embodiments, the impermeable container of second liquid may be configured to accommodate and be melted with higher than the first phase-change material
Second phase-change material of point.Such as the impermeable container of the first liquid includes embodiment water as phase-change material wherein
In, the impermeable container of second liquid includes salt solution, and salt solution has the solidification point less than (non-salt) water.Such as wherein
The impermeable container of one liquid includes water as in the embodiment of phase-change material, and the impermeable container of second liquid includes tool
There is the phase-change material of -10 degrees Celsius of solidification point.Such as the impermeable container of the first liquid includes water as phase wherein
Become in the embodiment of material, the impermeable container of second liquid includes the phase-change material with -20 degrees Celsius of solidification point.
Some embodiments of refrigerating plant include:One or more walls of the impermeable container of liquid are essentially formed,
The container is configured to phase-change material being maintained in refrigerating plant inner space, and wherein one or more walls integrally wrap
First group of impermeable structure of steam is included, the empty inner space of first group of impermeable structure of steam is connected and forms condenser;At least
One active refrigeration unit, the active refrigeration unit include one group of evaporator coil, and the evaporator coil, which is located at liquid, to be oozed
In the inner space of saturating container;One or more walls, its essentially form storage area and integrally include second group it is impermeable
Structure of steam, the hollow interior space of second group of impermeable structure of steam are connected and form evaporator;And it is attached to condensation
The connector of both device and evaporator, the connector condenser hollow interior space and evaporator hollow interior space it
Between form liquid and vapor flow paths, wherein condenser, evaporator and connector forms the heat transfer system with refrigerating plant one
System.
Some embodiments include, and wherein the size and dimension of connector allows the steaming of both liquid and steam in heat transfer system
Send out and flowed between the inner space of device and the inner space of condenser.It is positioned in and refrigerating plant 100 for example, Fig. 5 is depicted
Connector 370 between the evaporator 360 and condenser 350 of the heat transfer system of one.In the embodiment shown in fig. 5, conduct heat
System is flowed with fluid and steam along linear substantially vertical (being upper and lower in the view of fig. 5) path, is being conducted heat
Bidirectional-movement is carried out in each hollow interior space of system and is operated.
Fig. 7 depicts the embodiment of refrigerating plant 100.In the embodiment shown, the impermeable container 300 of liquid is by wall
320 are made.Both condensers 350 with heat transfer system in the wall 320 of the impermeable container 300 of liquid are in thermally contacting.
For example, these walls can be made up of the roll bond stratified material including condenser, the material, which is bent and positioned, is shaped as liquid
The impermeable wall of a container of body.One group of evaporator coil 330 is located in the impermeable container 300 of liquid, and sensor
410 are positioned between the inside of the wall 320 of the edge of this group of evaporator coil 330 and the impermeable container 300 of liquid, should
Wall is in a part for condenser 350 and thermally contacted.This group of evaporator coil 330 is operatively attached to compressor 335, the pressure
Contracting machine can further be attached to controller 380 and power monitor 390.Refrigerating plant 100 includes arriving power supply (such as power network system
System) power connector 395.The embodiment of condenser 350 shown in Fig. 7 be made into including in the liquid in condenser 350 and
Multiple home loops of vapor flow paths.Refrigerating plant 100 shown in Fig. 7 includes two connectors 370 in heat transfer system.
Each connector 370 provides two-way liquid for the evaporation liquid in the hollow interior space of heat transfer system and steam flows road
Footpath.
Refrigerating plant 100 shown in Fig. 7 also includes the storage area 310 substantially limited by wall 340.Storage area
Both evaporators 360 with heat transfer system in 310 wall 340 are in thermally contacting.For example, these walls can be by including evaporator
Roll bond stratified material be made, the material is bent and positioned the wall for being shaped as storage area.In the embodiment shown in Fig. 7
In, evaporator 360 includes two different paths, one being integrated on every side of evaporator 360.Two different paths quilt
It is configured to provide two-way liquid and vapor flow paths in hollow interior space.Two in the inner space of evaporator 360
Path is connected at its minimum point 700.
In certain embodiments, refrigerating plant includes heat transfer system, and the heat transfer system includes evaporator, condenser and one
Or multiple connectors, wherein each connector forms dual vapor between the inner space of evaporator and the inner space of condenser
And liquid flow path.In certain embodiments, refrigerating plant includes heat transfer system, and the heat transfer system includes evaporator, condensation
Device and a connector.In certain embodiments, refrigerating plant includes heat transfer system, and the heat transfer system includes evaporator, condensation
Device and two connectors.For example, two connectors can be positioned so that it is adjacent from two different faces of refrigerating plant.For example,
Two connectors can be positioned so that adjacent with the single face of refrigerating plant.In certain embodiments, refrigerating plant includes heat transfer
System, the heat transfer system include evaporator, condenser and three connectors.For example, three connectors can be positioned so that and make
Three different faces of device for cooling are adjacent, such as two sides and a back side.For example, three connectors can be positioned so that with
The single face of refrigerating plant is adjacent.
Some embodiments include with hollow interior space being connected and forming first group of impermeable structure of steam of condenser.No
Saturating structure of steam is also that liquid is impermeable.According to embodiment, impermeable structure of steam can be connect by pipe, tubular structure, roll-in
The region of condensation material or other materials are made.Some embodiments include the condenser formed by first group of impermeable structure of steam, its
In the impermeable structure of steam there is some, and each part is connected to connector in lower position.Some embodiments
Including the condenser formed by first group of impermeable structure of steam, the wherein impermeable structure of steam has some, and each
Part is connected to connector in lower position, and at least one other part is connected at upper position.Some are implemented
Example includes the condenser formed by first group of impermeable structure of steam, and the wherein impermeable structure of steam has some, and often
Individual part is connected to connector and at least one centre position height in lower position.For example, in certain embodiments, first
The impermeable structure of steam of group forms zigzag pattern, and the structure is connected to each other in the intersection of pattern.
Some embodiments include with hollow interior space being connected and forming second group of impermeable structure of steam of evaporator.No
Saturating structure of steam is also that liquid is impermeable.According to embodiment, impermeable structure of steam can be connect by pipe, tubular structure, roll-in
The region of condensation material or other materials are made.Some embodiments include the evaporator formed by second group of impermeable structure of steam, its
In the impermeable structure of steam there is some, and each part is connected to connector at upper position.Some embodiments
Including the evaporator formed by second group of impermeable structure of steam, the wherein impermeable structure of steam has some, and each
Part is connected to connector at upper position, and is connected at least one other part in lower position.Some are implemented
Example includes the evaporator formed by second group of impermeable structure of steam, and the wherein impermeable structure of steam has some, and often
Individual part is connected to connector and at least one centre position height at upper position.For example, in certain embodiments, second
The impermeable structure of steam of group forms zigzag pattern, and the structure is connected to each other in the intersection of pattern.
In certain embodiments, heat transfer system is made up of continuous roll bond material, wherein the roll bond material bag
Include evaporator, condenser and one or more connectors.Lead to for example, roll bond material can be made with desired inside
Road, so as to form one or more passages between evaporator, condenser and evaporator and condenser, wherein during fabrication most
Just essentially flat roll bond material is bent to form storage area and/or the impermeable wall of a container of liquid.Example
Such as, it is made into including evaporator, condenser and one or more connectors and roll bond essentially flat during fabrication
Material, it may be reconfigured to be formed storage area and/or the side of the impermeable container of liquid after the fabrication, and
The form reconfigured can be integrated into during the assembling of refrigerating plant in refrigerating plant.In certain embodiments, freeze
Device includes:One or more walls of the impermeable container of liquid are essentially formed, the container is configured to phase transformation
Material is maintained inside refrigerating plant;At least one active refrigeration unit, at least one active refrigeration unit include one group of steaming
Device coil pipe is sent out, the evaporator coil is located in the inner space of the impermeable container of liquid;Sensor, the sensor are located at liquid
In the impermeable container of body, between one or more walls and one group of evaporator coil;Essentially form the one of storage area
Individual or multiple walls;Heat transfer system, the heat transfer system include:First group of impermeable structure of steam, first group of impermeable structure of steam
Hollow interior space is connected and forms condenser, the condenser and essentially form one of the impermeable container of liquid or
Multiple walls are in thermo-contact;Second group of impermeable structure of steam, the hollow interior space of second group of impermeable structure of steam are connected
And form evaporator, the evaporator with essentially form storage area one or more walls be in thermally contact;And connector,
The connector is attached to both condenser and evaporator, the connector condenser hollow interior space and evaporator it is hollow
Liquid and vapor flow paths are formed between inner space;And it is operatively attached at least one active refrigeration unit and biography
The controller of sensor.
In certain embodiments, refrigerating plant also includes:The heat conducting wall of impermeable container one, heat conducting wall with liquid
Including the region at the edge for protruding past the impermeable container of liquid;Shell, the shell be attached to heat conducting wall, protrude past
The region at the edge of the impermeable container of the liquid of heat conducting wall, the shell include adjacent with the region of heat conducting wall heat-insulated
Layer;And the framework in shell is attached in, the framework has chi of the encapsulating for one or more containers of freezing phase-change material
Very little and shape.In use, when heat passes through the side of refrigerating plant, heat is spread along heat conducting wall, including to not
The container of transflective liquid.This radiating helps the internal storage area of shell being maintained within the scope of predetermined temperature, with freezing
The container of one or more phase-change materials.For example, heat conducting wall can include heat-conducting metal, such as copper or aluminium.For example, thermal insulation layer can
With including the standard heat-barrier material used in such as refrigerating plant, such as foam insulation or one or more vacuum insulation panels.Tool
There is framework of the encapsulating for the size and dimension of one or more containers of freezing phase-change material, the wherein framework is attached in outer
In shell, the framework can include frame element, such as one or more setting elements and/or one or more tension elements.
Fig. 8 depicts the aspect of refrigerating plant with basic viewgraph of cross-section.For purposes of illustration, show can be with by Fig. 8
The part for the refrigerating plant that other feature structures as described herein combine.Fig. 8 depicts the liquid for including substantially flat wall 320
The impermeable container 300 of body.Include having in the inner space of the impermeable container 300 of liquid and be used to be formed and one group of system
The region 305 of the size and dimension in the adjacent space of cooling coil.The substantially flat wall of the impermeable container 300 of liquid
320 outside vertical wall is heat conducting wall 805.Under the container 300 impermeable with bottom outer wall 830 and liquid of heat conducting wall 805
Portion's wall is combined to form shell 810.Be positioned at opening position adjacent with the wall of shell 810 in shell 810 is thermal insulation layer 820.
Framework 600 with encapsulating for the size and dimension of one or more containers of freezing phase-change material is positioned in thermal insulation layer
In 820.In the embodiment shown, inwall 850 is by thermal insulation layer and the phase-change material being positioned between thermal insulation layer 820 and framework 600
Layer 840 separates.In embodiment, the mode of the system integration is that system configures only as the function exclusively for refrigerating plant
Special system operates, and any associated computing device of system is as the special-purpose for system claimed
Computer, rather than all-purpose computer operates.In embodiment, at least one associated computing device conduct of system
Operated for the computer of the special-purpose of system claimed, rather than all-purpose computer.In embodiment, system
At least one associated computing device and specific ROM hardwireds to instruct at least one computing device.In embodiment,
Those skilled in the art will appreciate that refrigerating plant and system at least in the refrigeration technology field based on intermittent power supply, such as
In the region that long-range or resource faces the challenge, improvement is realized.
Present disclosure has been carried out by reference to various exemplary embodiments.However, it would be recognized by those skilled in the art that not
It can change these embodiments and change in the case of the scope for departing from present disclosure.For example, various operating procedures and
Component for performing operating procedure according to concrete application or can consider associated with the operation of system any amount of
Cost function is realized in an alternative way;For example, one or more steps can be deleted, change or with other step groups
Close.
In addition, the principle of present disclosure, including part, the computer journey that can be reflected on computer-readable recording medium
In sequence product, the computer-readable recording medium has the computer readable program code means being embodied in storage medium.Can
To use any tangible, non-transient computer readable storage medium storing program for executing, including magnetic memory apparatus (hard disk, floppy disk etc.), optical storage
Equipment (CD-ROM, DVD, Blu-ray Disc etc.), flash memories and/or the like.These computer program instructions can be by
It is loaded into all-purpose computer, special-purpose computer or other programmable data processing devices to produce machine so that in computer
Or the instruction performed in other programmable data processing devices creates the means realized and specify function.For example, computer program refers to
Order can be integrated into the circuit of the controller of the embodiment of refrigerating plant.These computer program instructions can also be stored
In computer-readable memory, the computer-readable memory can instruct computer or other programmable data processing devices
Run in a specific way so that the instruction being stored in computer-readable memory produces manufacture article, including realizes and specify work(
The device of energy.Computer program instructions can also be loaded into computer or other programmable data processing devices, to cause
Series of operation steps is performed on computer or other programmable devices to produce computer implemented process so that calculating
The instruction performed on machine or other programmable devices was provided for the step of realizing specified function.
In general sense, various aspects described herein (can be used for example as hardware specification by various hardware, software
High level computer program), firmware and/or its any combinations individually and/or jointly realize, be regarded as by various types of
" circuit " composition of type.Therefore, as used herein, " circuit " include but is not limited to at least one discrete circuit circuit,
Circuit with least one integrated circuit, the circuit with least one application specific integrated circuit, formed and matched somebody with somebody by computer program
The circuit for the general-purpose calculating appts put is (for example, the computer journey by performing process as described herein and/or device at least in part
The all-purpose computer of sequence configuration, or the computer program by performing process as described herein and/or device at least in part are matched somebody with somebody
The microprocessor put), formed (for example, (for example, the arbitrary access, flash memory, read-only etc.) of the form of memory) storage arrangement
Circuit, and/or formed communicator circuit (for example, modem, communication switchboard, optoelectronic device etc.).Retouch herein
The theme stated can be implemented with either digital form or its a certain combination is simulated.
This specification is described by reference to various embodiments.However, can in the case where not departing from the scope of present disclosure
To make various modifications and changes.Therefore, present disclosure is regarded in an illustrative, rather than a restrictive, and all such is repaiied
Change and be intended to be included in the range of it.Equally, the solution of benefit, other advantages and problem is described above with respect to various embodiments
Scheme.However, it is possible to make any benefit, advantage or solution generation or the solution for becoming more significant benefit, advantage, problem
Scheme and any element are all not construed as being crucial, required or basic feature or element.As used herein, art
Language " comprising ", "comprising" and its any other modification are intended to cover including for nonexcludability so that including series of elements
Process, method, article or equipment not only include those elements really, but also can include being not expressly set out or such mistake
Journey, method, system, article or the intrinsic other elements of equipment.
The each side of theme as described herein is listed in the clause of following numbering:
1. a kind of refrigerating plant, including:
Essentially form one or more walls of the impermeable container of liquid, the impermeable container of the liquid by with
It is set to and phase-change material is maintained inside refrigerating plant;
At least one active refrigeration unit, at least one active refrigeration unit includes one group of evaporator coil, described
Evaporator coil is located in the inner space of the impermeable container of the liquid;
Essentially form one or more walls of storage area;And
Heat transfer system, the heat transfer system include:First group of impermeable structure of steam, first group of impermeable structure of steam it is hollow
Inner space is connected and forms condenser, the condenser and the one or more for essentially forming the impermeable container of liquid
Wall is in thermo-contact;Second group of impermeable structure of steam, the hollow interior space of second group of impermeable structure of steam are connected and shape
Into evaporator, the evaporator with essentially form storage area one or more walls be in thermally contact;And connector, the company
The hollow interior space for connecing device is attached to both condenser and evaporator, hollow interior space and steaming of the connector in condenser
Liquid and vapor flow paths are formed between the hollow interior space of hair device.
2. according to the refrigerating plant described in clause 1, wherein the impermeable container of the liquid is positioned at the refrigeration dress
Above the storage area in putting.
3. according to the refrigerating plant described in clause 1, wherein the impermeable container of the liquid includes:
Aperture, size, shape and the position that the aperture has allow described group of evaporator coil to spread all over the aperture;With
And
The impermeable sealing of liquid between the surface in the aperture and the surface of described group of evaporator coil.
4. according to the refrigerating plant described in clause 1, wherein essentially forming the one of the impermeable container of liquid
Or multiple walls include multiple layers, and the condenser is oriented to and at least one layer of surface phase in the multiple layer
It is adjacent.
5. according to the refrigerating plant described in clause 1, wherein essentially forming the described of the impermeable container of the liquid
One or more walls include multiple layers, wherein at least one layer in one or more of layers includes non-planar regions to be formed
Multiple sides of the impermeable container of the liquid.
6. according to the refrigerating plant described in clause 1, wherein essentially forming the one or more of of the storage area
Wall is included with position, the aperture of size and dimension for forming passage opening.
7. according to the refrigerating plant described in clause 1, wherein essentially forming the one or more of of the storage area
Wall is included with position, the aperture of size and dimension reversibly coordinated with door.
8. according to the refrigerating plant described in clause 1, wherein essentially forming the one or more of of the storage area
Wall forms five sides of rectangular parallelepiped structure.
9. according to the refrigerating plant described in clause 1, wherein essentially forming the one or more of of the storage area
Wall includes multiple layers, and the evaporator be oriented to it is adjacent with least one layer of surface in the multiple layer.
10. according to the refrigerating plant described in clause 1, wherein at least one active refrigeration unit includes:
Active cooling systems.
11. according to the refrigerating plant described in clause 1, wherein at least one active refrigeration unit includes:
Electric compressor system.
12. according to the refrigerating plant described in clause 1, including at least one active of described group of evaporator coil
Refrigeration unit includes:
The Part I of described group of evaporator coil, the Part I are oriented to and essentially formed the liquid not
The outer surface of one or more of walls of permeable container is adjacent;
The Part II of described group of evaporator coil, the Part II are located at the institute of the impermeable container of the liquid
State in inner space;And
Framework, the framework have size and dimension of the encapsulating for one or more containers of freezing phase-change material, institute
The Part I for stating framework and described group of evaporator coil is in and thermally contacted.
13. according to the refrigerating plant described in clause 1, wherein the heat transfer system forms unidirectional heat in the refrigerating plant
Conductor.
14. according to the refrigerating plant described in clause 1, wherein the heat transfer system include it is continuous it is substantially sealed off it is hollow in
Portion space, and the evaporation liquid being sealed in the continuous hollow interior space substantially sealed off.
15. according to the refrigerating plant described in clause 1, wherein so that hollow interior space is connected and forms the condenser
First group of impermeable structure of steam forms branched structure.
16. according to the refrigerating plant described in clause 1, wherein so that hollow interior space is connected and forms the condenser
It is at least one in one or more of walls of first group of impermeable structure of steam container impermeable with the liquid
Wall is integral.
17. according to the refrigerating plant described in clause 1, wherein so that hollow interior space is connected and forms the condenser
It is at least one in one or more of walls of first group of impermeable structure of steam container impermeable with the liquid
Wall, which is in, directly to be thermally contacted.
18. according to the refrigerating plant described in clause 1, wherein so that hollow interior space is connected and forms the evaporator
Second group of impermeable structure of steam forms branched structure.
19. according to the refrigerating plant described in clause 1, wherein so that hollow interior space is connected and forms the evaporator
It is at least one in one or more of walls of second group of impermeable structure of steam container impermeable with the liquid
Wall is integral.
20. according to the refrigerating plant described in clause 1, wherein so that hollow interior space is connected and forms the evaporator
It is at least one in one or more of walls of second group of impermeable structure of steam container impermeable with the liquid
Wall, which is in, directly to be thermally contacted.
21. according to the refrigerating plant described in clause 1, wherein the connector is the structure of substantial linear, when the system
In when using position, the structure is oriented to substantially vertical device for cooling.
22. according to the refrigerating plant described in clause 1, wherein the connector includes multiple conduits, the multiple conduit
First end is attached to the evaporator, and the second end is attached to the condenser, and wherein each conduit is positioned and configured to
There is provided between the inside of the evaporator and the inner space of the condenser for the two-way of liquid and steam
Flow path.
23. according to the refrigerating plant described in clause 1, further comprise:
Phase-change material in the container impermeable positioned at the liquid.
24. according to the refrigerating plant described in clause 1, further comprise:
Path lid in the top surface of the impermeable container of the liquid, the path lid are configured for user and touched
In the inner space of the impermeable container of the liquid.
25. according to the refrigerating plant described in clause 1, further comprise:
At least one valve of the connector is connected to, the valve is positioned and configured to reversibly control the connector
The hollow interior space size.
26. according to the refrigerating plant described in clause 1, further comprise:
At least one sensor, at least one sensor are located in the impermeable container of the liquid, described
Between one or more walls and described group of evaporator coil;And
Controller, the controller are operatively attached at least one active refrigeration unit and the sensor.
27. according to the refrigerating plant described in clause 26, wherein the controller includes:
Circuit, the circuit are used to open and close described at least one in response to the data received from the sensor
Active refrigeration unit.
28. according to the refrigerating plant described in clause 1, further comprise:
The heat control device of the connector is connected to, the heat control device is positioned and configured to reversibly control institute
State the size of the hollow interior space of connector;
At least one sensor, at least one sensor are located in the impermeable container of the liquid, described
Between one or more walls and described group of evaporator coil;And
Controller, the controller are operatively attached to the heat control device and the sensor.
29. according to the refrigerating plant described in clause 28, wherein the controller includes:
Circuit, the circuit are used for the data in response to being received from the sensor and send and control to the heat control device
Signal processed.
30. according to the refrigerating plant described in clause 1, further comprise:
Framework, opening position of the framework in the condenser distal side are attached to that to essentially form the liquid impermeable
Container one or more of walls outer surface, the framework have encapsulating for freezing phase-change material one or more
The size and dimension of container;And
At least one stretcher in the framework, the stretcher are oriented as one or more of containers being pressed against
On one or more of walls.
31. according to the refrigerating plant described in clause 30, wherein the framework includes at least one setting element, the positioning
Element be oriented as contributing to by one or more containers for freezing phase-change material be positioned to it is one or more
The outer surface of individual wall is adjacent.
32. according to the refrigerating plant described in clause 30, wherein the framework is located in the impermeable container of second liquid.
33. according to the refrigerating plant described in clause 1, further comprise:
Housing, the housing surround the impermeable container of the liquid, described group of evaporator coil, essentially form storage
Deposit one or more walls in region and the heat transfer system;And
Door in the housing, the door are oriented to reversibly allow user to touch the storage area.
34. according to the refrigerating plant described in clause 1, further comprise:
It is operatively attached to the power monitor of the controller.
35. according to the refrigerating plant described in clause 1, further comprise:
The heat conducting wall of impermeable container one with the liquid, the heat conducting wall include protruding past the liquid not
The region at the edge of permeable container;
The shell in the region of the heat conducting wall is attached to, the region of the heat conducting wall protrudes past the heat conduction
The edge of the impermeable container of the liquid of wall, the shell include adjacent with the region of the heat conducting wall heat-insulated
Layer;And
The framework being attached in the shell, the framework have one or more appearances of the encapsulating for freezing phase-change material
The size and dimension of device.
36. a kind of refrigerating plant, including:
One or more walls of the impermeable container of liquid are essentially formed, the container is configured to phase transformation
Material is maintained in refrigerating plant inner space, wherein one or more of walls integrally include first group of impermeable steam knot
Structure, the hollow interior space of first group of impermeable structure of steam are connected and form condenser;
At least one active refrigeration unit, at least one active refrigeration unit includes one group of evaporator coil, described
Evaporator coil is located in the inner space of the impermeable container of the liquid;
One or more walls, one or more of walls essentially form storage area and integrally include second group not
Saturating structure of steam, the hollow interior space of second group of impermeable structure of steam are connected and form evaporator;And
The connector of both the condenser and the evaporator is attached to, the connector is described in the condenser
Liquid and vapor flow paths are formed between hollow interior space and the hollow interior space of the evaporator, wherein described
Condenser, the evaporator and the connector form the heat transfer system with refrigerating plant one.
37. according to the refrigerating plant described in clause 36, wherein the impermeable container of the liquid is positioned at the refrigeration
Above the storage area in device.
38. according to the refrigerating plant described in clause 36, wherein the impermeable container of the liquid includes:
Aperture, size, shape and the position that the aperture has allow described group of evaporator coil to spread all over the aperture;With
And
The impermeable sealing of liquid between the surface in the aperture and the surface of described group of evaporator coil.
39. according to the refrigerating plant described in clause 36, wherein essentially forming described the one of the impermeable container of liquid
Individual or multiple walls include multiple layers, and the condenser is oriented to and at least one layer of surface phase in the multiple layer
It is adjacent.
40. according to the refrigerating plant described in clause 36, wherein essentially forming the institute of the impermeable container of the liquid
Stating one or more walls includes multiple layers, wherein at least one layer in one or more of layers includes non-planar regions with shape
Multiple sides of the container impermeable into the liquid.
41. according to the refrigerating plant described in clause 36, wherein so that hollow interior space is connected and forms the condenser
Described first group impermeable structure of steam form branched structure.
42. according to the refrigerating plant described in clause 36, wherein so that hollow interior space is connected and forms the condenser
First group of impermeable structure of steam and the impermeable container of the liquid one or more of walls at least one
Individual wall is integral.
43. according to the refrigerating plant described in clause 36, wherein so that hollow interior space is connected and forms the condenser
First group of impermeable structure of steam and the impermeable container of the liquid one or more of walls at least one
Individual wall, which is in, directly to be thermally contacted.
44. according to the refrigerating plant described in clause 36, wherein at least one active refrigeration unit includes:
Active cooling systems.
45. according to the refrigerating plant described in clause 36, wherein at least one active refrigeration unit includes:
Electric compressor system.
46. according to the refrigerating plant described in clause 36, wherein at least one active refrigeration unit includes:
The Part I of described group of evaporator coil, the Part I are oriented to and essentially formed the liquid not
The outer surface of one or more of walls of permeable container is adjacent;
The Part II of described group of evaporator coil, the Part II are located at the institute of the impermeable container of the liquid
State in inner space;And
Framework, the framework have size and dimension of the encapsulating for one or more containers of freezing phase-change material, institute
The Part I for stating framework and described group of evaporator coil is in and thermally contacted.
47. according to the refrigerating plant described in clause 36, wherein essentially forming the one or more of the storage area
Individual wall is included with position, the aperture of size and dimension for forming passage opening.
48. according to the refrigerating plant described in clause 36, wherein essentially forming the one or more of the storage area
Individual wall is included with position, the aperture of size and dimension reversibly coordinated with door.
49. according to the refrigerating plant described in clause 36, wherein essentially forming the one or more of the storage area
Individual wall forms five sides of rectangular parallelepiped structure.
50. according to the refrigerating plant described in clause 36, wherein essentially forming the one or more of the storage area
Individual wall includes multiple layers, and the evaporator be oriented to it is adjacent with least one layer of surface in the multiple layer.
51. according to the refrigerating plant described in clause 36, wherein so that hollow interior space is connected and forms the evaporator
Described second group impermeable structure of steam form branched structure.
52. according to the refrigerating plant described in clause 36, wherein so that hollow interior space is connected and forms the evaporator
Second group of impermeable structure of steam and the impermeable container of the liquid one or more of walls at least one
Individual wall is integral.
53. according to the refrigerating plant described in clause 36, wherein so that hollow interior space is connected and forms the evaporator
Second group of impermeable structure of steam and the impermeable container of the liquid one or more of walls at least one
Individual wall, which is in, directly to be thermally contacted.
54. according to the refrigerating plant described in clause 36, wherein the connector is the structure of substantial linear, when the system
In when using position, the structure is oriented to substantially vertical device for cooling.
55. according to the refrigerating plant described in clause 36, wherein the connector includes multiple conduits, the multiple conduit
First end is attached to the evaporator, and the second end is attached to the condenser, and wherein each conduit is positioned and configured to
There is provided between the inner space of the evaporator and the inner space of the condenser for liquid and steam
Bi-directional flow path.
56. according to the refrigerating plant described in clause 36, wherein the heat transfer system is formed unidirectionally in the refrigerating plant
Heat conductor.
57. according to the refrigerating plant described in clause 36, wherein the heat transfer system include it is continuous substantially sealed off hollow
Inner space, and the evaporation liquid being sealed in the continuous hollow interior space substantially sealed off.
58. according to the refrigerating plant described in clause 36, further comprise:
Phase-change material in the container impermeable positioned at the liquid.
59. according to the refrigerating plant described in clause 36, further comprise:
Path lid in the top surface of the impermeable container of the liquid, the path lid are configured for user and touched
In the inner space of the impermeable container of the liquid.
60. according to the refrigerating plant described in clause 36, further comprise:
At least one heat control device of the connector is connected to, the heat control device is positioned and configured to reversible
Ground controls the size of the hollow interior space of the connector.
61. according to the refrigerating plant described in clause 36, further comprise:
At least one sensor, at least one sensor are located in the impermeable container of the liquid, described
Between one or more walls and described group of evaporator coil;And
Controller, the controller are operatively attached at least one active refrigeration unit and the sensor.
62. according to the refrigerating plant described in clause 61, wherein the controller includes:
Circuit, the circuit are used to open and close described at least one in response to the data received from the sensor
Active refrigeration unit.
63. according to the refrigerating plant described in clause 36, further comprise:
The heat control device of the connector is connected to, the heat control device is positioned and configured to reversibly control institute
State the size of the hollow interior space of connector;
At least one sensor, at least one sensor are located in the impermeable container of the liquid, described
Between one or more walls and described group of evaporator coil;And
Controller, the controller are operatively attached to the heat control device and the sensor.
64. according to the refrigerating plant described in clause 63, wherein the controller includes:
Circuit, the circuit are used for the data in response to being received from the sensor and send and control to the heat control device
Signal processed.
65. according to the refrigerating plant described in clause 36, further comprise:
Framework, opening position of the framework in the condenser distal side are attached to that to essentially form the liquid impermeable
Container one or more of walls outer surface, the framework have encapsulating for freezing phase-change material one or more
The size and dimension of container;And
At least one stretcher in the framework, the stretcher are oriented as one or more of containers being pressed against
On one or more of walls.
66. according to the refrigerating plant described in clause 65, wherein the framework includes at least one setting element, the positioning
Element be oriented as contributing to by one or more containers for freezing phase-change material be positioned to it is one or more
The outer surface of individual wall is adjacent.
67. according to the refrigerating plant described in clause 65, wherein the framework is located in the impermeable container of second liquid.
68. according to the refrigerating plant described in clause 36, further comprise:
Housing, the housing surround the impermeable container of the liquid, described group of evaporator coil, essentially form storage
Deposit one or more walls in region and the heat transfer system;And
Door in the housing, the door are oriented to reversibly allow user to touch the storage area.
69. according to the refrigerating plant described in clause 36, further comprise:
It is operatively attached to the power monitor of the controller.
70. according to the refrigerating plant described in clause 36, further comprise:
The heat conducting wall of impermeable container one with the liquid, the heat conducting wall include protruding past the liquid not
The region at the edge of permeable container;
The shell in the region of the heat conducting wall is attached to, the region of the heat conducting wall protrudes past the heat conduction
The edge of the impermeable container of the liquid of wall, the shell include adjacent with the region of the heat conducting wall heat-insulated
Layer;And
The framework being attached in the shell, the framework have one or more appearances of the encapsulating for freezing phase-change material
The size and dimension of device.
71. a kind of refrigerating plant, including:
One or more walls of the impermeable container of liquid are essentially formed, the container is configured to phase-change material
It is maintained inside refrigerating plant;
At least one active refrigeration unit, at least one active refrigeration unit includes one group of evaporator coil, described
Evaporator coil is located in the inner space of the impermeable container of the liquid;
Sensor, the sensor are located in the impermeable container of the liquid, in one or more of walls and institute
State between group evaporator coil;
Essentially form one or more walls of storage area;
Heat transfer system, the heat transfer system include:First group of impermeable structure of steam, first group of impermeable structure of steam it is hollow
Inner space is connected and forms condenser, the condenser and the one or more for essentially forming the impermeable container of liquid
Wall is in thermo-contact;Second group of impermeable structure of steam, the hollow interior space of second group of impermeable structure of steam are connected and shape
Into evaporator, the evaporator with essentially form storage area one or more walls be in thermally contact;And connector, the company
Connect device and be attached to both condenser and evaporator, the connector is in the hollow interior space of condenser and the hollow inside of evaporator
Liquid and vapor flow paths are formed between space;And
Controller, the controller are operatively attached at least one active refrigeration unit and the sensor.
72. according to the refrigerating plant described in clause 71, wherein the impermeable container of the liquid is positioned at the refrigeration
Above the storage area in device.
73. according to the refrigerating plant described in clause 71, wherein the impermeable container of the liquid includes:
Aperture, size, shape and the position that the aperture has allow described group of evaporator coil to spread all over the aperture;With
And
The impermeable sealing of liquid between the surface in the aperture and the surface of described group of evaporator coil.
74. according to the refrigerating plant described in clause 71, wherein essentially forming described the one of the impermeable container of liquid
Individual or multiple walls include multiple layers, and the condenser is oriented to and at least one layer of surface phase in the multiple layer
It is adjacent.
75. according to the refrigerating plant described in clause 71, wherein essentially forming the institute of the impermeable container of the liquid
Stating one or more walls includes multiple layers, wherein at least one layer in one or more of layers includes non-planar regions with shape
Multiple sides of the container impermeable into the liquid.
76. according to the refrigerating plant described in clause 71, wherein at least one active refrigeration unit includes:
Active cooling systems.
77. according to the refrigerating plant described in clause 71, wherein at least one active refrigeration unit includes:
Electric compressor system.
78. according to the refrigerating plant described in clause 71, including at least one master of described group of evaporator coil
Dynamic refrigeration unit includes:
The Part I of described group of evaporator coil, the Part I are oriented to and essentially formed the liquid not
The outer surface of one or more of walls of permeable container is adjacent;
The Part II of described group of evaporator coil, the Part II are located at the institute of the impermeable container of the liquid
State in inner space;And
Framework, the framework have size and dimension of the encapsulating for one or more containers of freezing phase-change material, institute
The Part I for stating framework and described group of evaporator coil is in and thermally contacted.
79. according to the refrigerating plant described in clause 71, wherein when the refrigerating plant is in use, positioned at the liquid
Impermeable container is interior, the sensor between one or more of walls and described group of evaporator coil is oriented to
Immerse in phase-change material.
80. according to the refrigerating plant described in clause 71, wherein in the impermeable container of the liquid, described one
The sensor between individual or multiple walls and described group of evaporator coil includes:
Temperature sensor.
81. according to the refrigerating plant described in clause 71, wherein essentially forming the one or more of the storage area
Individual wall is included with position, the aperture of size and dimension for forming passage opening.
82. according to the refrigerating plant described in clause 71, wherein essentially forming the one or more of the storage area
Individual wall is included with position, the aperture of size and dimension reversibly coordinated with door.
83. according to the refrigerating plant described in clause 71, wherein essentially forming the one or more of the storage area
Individual wall forms five sides of rectangular parallelepiped structure.
84. according to the refrigerating plant described in clause 71, wherein essentially forming the one or more of the storage area
Individual wall includes multiple layers, and the evaporator be oriented to it is adjacent with least one layer of surface in the multiple layer.
85. according to the refrigerating plant described in clause 71, wherein the heat transfer system is formed unidirectionally in the refrigerating plant
Heat conductor.
86. according to the refrigerating plant described in clause 71, wherein the heat transfer system include it is continuous substantially sealed off hollow
Inner space, and the evaporation liquid being sealed in the continuous hollow interior space substantially sealed off.
87. according to the refrigerating plant described in clause 71, wherein so that hollow interior space is connected and forms the condenser
Described first group impermeable structure of steam form branched structure.
88. according to the refrigerating plant described in clause 71, wherein so that hollow interior space is connected and forms the condenser
First group of impermeable structure of steam and the impermeable container of the liquid one or more of walls at least one
Individual wall is integral.
89. according to the refrigerating plant described in clause 71, wherein so that hollow interior space is connected and forms the condenser
First group of impermeable structure of steam and the impermeable container of the liquid one or more of walls at least one
Individual wall, which is in, directly to be thermally contacted.
90. according to the refrigerating plant described in clause 71, wherein so that hollow interior space is connected and forms the evaporator
Described second group impermeable structure of steam form branched structure.
91. according to the refrigerating plant described in clause 71, wherein so that hollow interior space is connected and forms the evaporator
Second group of impermeable structure of steam and the impermeable container of the liquid one or more of walls at least one
Individual wall is integral.
92. according to the refrigerating plant described in clause 71, wherein so that hollow interior space is connected and forms the evaporator
Second group of impermeable structure of steam and the impermeable container of the liquid one or more of walls at least one
Individual wall, which is in, directly to be thermally contacted.
93. according to the refrigerating plant described in clause 71, wherein the connector is the structure of substantial linear, when the system
In when using position, the structure is oriented to substantially vertical device for cooling.
94. according to the refrigerating plant described in clause 71, wherein the connector includes multiple conduits, the multiple conduit
First end is attached to the evaporator, and the second end is attached to the condenser, and wherein each conduit is positioned and configured to
There is provided between the inner space of the evaporator and the inner space of the condenser for liquid and steam
Bi-directional flow path.
95. according to the refrigerating plant described in clause 71, wherein the controller includes:
Circuit, the circuit are used to open and close described at least one in response to the data received from the sensor
Active refrigeration unit.
96. according to the refrigerating plant described in clause 71, further comprise:
Phase-change material in the container impermeable positioned at the liquid.
97. according to the refrigerating plant described in clause 71, further comprise:
Path lid in the top surface of the impermeable container of the liquid, the path lid are configured for user and touched
In the inner space of the impermeable container of the liquid.
98. according to the refrigerating plant described in clause 71, further comprise:
At least one heat control device of the connector is connected to, at least one heat control device is positioned and matched somebody with somebody
It is set to the size for the hollow interior space for reversibly controlling the connector.
99. according to the refrigerating plant described in clause 71, further comprise:
Heat control device, the heat control device are connected to the connector, and the heat control device is positioned and configured
Into the size for the hollow interior space for reversibly controlling the connector, the heat control device is operatively attached to institute
State controller and be configured to receive the control signal from the controller.
100. according to the refrigerating plant described in clause 71, further comprise:
Framework, opening position of the framework in the condenser distal side are attached to that to essentially form the liquid impermeable
Container one or more of walls outer surface, the framework have encapsulating for freezing phase-change material one or more
The size and dimension of container;And
At least one stretcher in the framework, the stretcher are oriented as one or more of containers being pressed against
On one or more of walls.
101. according to the refrigerating plant described in clause 100, wherein the framework includes at least one setting element, it is described fixed
Bit unit be oriented as contributing to by one or more containers for freezing phase-change material be positioned to it is one or
The outer surface of multiple walls is adjacent.
102. according to the refrigerating plant described in clause 100, wherein the framework is located at the impermeable container of second liquid
It is interior.
103. according to the refrigerating plant described in clause 71, further comprise:
Housing, the housing surround the impermeable container of the liquid, described group of evaporator coil, essentially form storage
Deposit one or more walls in region and the heat transfer system;And
Door in the housing, the door are oriented to reversibly allow user to touch the storage area.
104. according to the refrigerating plant described in clause 71, further comprise:
It is operatively attached to the power monitor of the controller.
105. according to the refrigerating plant described in clause 71, further comprise:
The heat conducting wall of impermeable container one with the liquid, the heat conducting wall include protruding past the liquid not
The region at the edge of permeable container;
The shell in the region of the heat conducting wall is attached to, the region of the heat conducting wall protrudes past the heat conduction
The edge of the impermeable container of the liquid of wall, the shell include adjacent with the region of the heat conducting wall heat-insulated
Layer;And
The framework being attached in the shell, the framework have one or more appearances of the encapsulating for freezing phase-change material
The size and dimension of device.
All above United States Patent (USP)s that are referring in this manual and/or being listed in any application materials table, the U.S.
Patent Application Publication, U.S. Patent application, foreign patent, foreign patent application and non-patent publications all with not rushing herein
It is herein incorporated by reference in the case of prominent.Although various aspects and embodiment are disclosed herein, its other party
Face and embodiment will be apparent to those skilled in the art.Various aspects and embodiment described herein
It is for illustrative purposes, it is not intended to be restricted, wherein real scope and spirit are indicated by appended claims.
Claims (43)
1. a kind of refrigerating plant, including:
One or more walls of the impermeable container of liquid are essentially formed, the impermeable container of the liquid is configured to
Phase-change material is maintained inside refrigerating plant;
At least one active refrigeration unit, at least one active refrigeration unit include one group of evaporator coil, the evaporation
Device coil pipe is located in the inner space of the impermeable container of the liquid;
Essentially form one or more walls of storage area;And
Heat transfer system, the heat transfer system include:First group of impermeable structure of steam, first group of impermeable structure of steam it is hollow
Inner space is connected and forms condenser, the condenser container impermeable with essentially forming liquid it is one
Or multiple walls are in thermo-contact;Second group of impermeable structure of steam, the hollow interior space phase of second group of impermeable structure of steam
Connect and form evaporator, the evaporator with essentially form storage area one or more of walls be in thermally contact;
And connector, the hollow interior space of the connector are attached to both the condenser and the evaporator, the connection
Device forms liquid and flow of vapor between the hollow interior space of the condenser and the hollow interior space of the evaporator
Path.
2. refrigerating plant according to claim 1, wherein essentially forming the one of the impermeable container of liquid
Or multiple walls include multiple layers, and the condenser is oriented to and at least one layer of surface phase in the multiple layer
It is adjacent.
3. refrigerating plant according to claim 1, wherein essentially forming the described of the impermeable container of the liquid
One or more walls include multiple layers, wherein at least one layer in one or more of layers includes non-planar regions to be formed
Multiple sides of the impermeable container of the liquid.
4. refrigerating plant according to claim 1, wherein essentially forming the one or more of of the storage area
Wall includes multiple layers, and the evaporator be oriented to it is adjacent with least one layer of surface in the multiple layer.
5. refrigerating plant according to claim 1, including at least one active of described group of evaporator coil
Refrigeration unit includes:
The Part I of described group of evaporator coil, the Part I, which is oriented to and essentially formed the liquid, to be oozed
The outer surface of one or more of walls of saturating container is adjacent;
The Part II of described group of evaporator coil, the Part II are located at the described interior of the impermeable container of the liquid
In portion space;And
Framework, the framework have size and dimension of the encapsulating for one or more containers of freezing phase-change material, the frame
Frame is in the Part I of described group of evaporator coil and thermally contacted.
6. refrigerating plant according to claim 1, wherein so that hollow interior space is connected and forms the condenser
It is at least one in one or more of walls of first group of impermeable structure of steam container impermeable with the liquid
Wall is integral.
7. refrigerating plant according to claim 1, wherein so that hollow interior space is connected and forms the evaporator
It is at least one in one or more of walls of second group of impermeable structure of steam container impermeable with the liquid
Wall is integral.
8. refrigerating plant according to claim 1, wherein the connector includes multiple conduits, the of the multiple conduit
One end is attached to the evaporator and the second end is attached to the condenser, and wherein each conduit is positioned and configured to
There is provided between the inner space of the evaporator and the inner space of the condenser for liquid and steam
Bi-directional flow path.
9. refrigerating plant according to claim 1, further comprises:
At least one valve of the connector is connected to, the valve is positioned and configured to reversibly control in the connector
The size of empty inner space.
10. refrigerating plant according to claim 1, further comprises:
At least one sensor, at least one sensor are located in the impermeable container of the liquid, one
Or between multiple walls and described group of evaporator coil;And
Controller, the controller are operatively attached at least one active refrigeration unit and the sensor.
11. refrigerating plant according to claim 1, further comprises:
The heat control device of the connector is connected to, the heat control device is positioned and configured to reversibly control the company
Connect the size of the hollow interior space of device;
At least one sensor, at least one sensor are located in the impermeable container of the liquid, one
Or between multiple walls and described group of evaporator coil;And
Controller, the controller are operatively attached to the heat control device and the sensor.
12. refrigerating plant according to claim 1, further comprises:
Framework, opening position of the framework in the condenser distal side, which is attached to, essentially forms the impermeable appearance of the liquid
The outer surface of one or more of walls of device, the framework have one or more containers of the encapsulating for freezing phase-change material
Size and dimension;And
At least one stretcher in the framework, the stretcher are oriented as one or more of containers being pressed against institute
State on one or more walls.
13. refrigerating plant according to claim 1, further comprises:
It is operatively attached to the power monitor of the controller.
14. refrigerating plant according to claim 1, further comprises:
The heat conducting wall of impermeable container one, the heat conducting wall can not ooze including protruding past the liquid with the liquid
The region at the edge of saturating container;
Shell, the impermeable appearance of the liquid that the shell is attached to the heat conducting wall, protruding past the heat conducting wall
The region at the edge of device, the shell include the thermal insulation layer adjacent with the region of the heat conducting wall;And
The framework being attached in the shell, the framework have encapsulating for one or more containers of freezing phase-change material
Size and dimension.
15. a kind of refrigerating plant, including:
One or more walls of the impermeable container of liquid are essentially formed, the container is configured to phase-change material
It is maintained inside refrigerating plant, wherein one or more of walls integrally include first group of impermeable structure of steam, described first
The hollow interior space of the impermeable structure of steam of group is connected and forms condenser;
At least one active refrigeration unit, at least one active refrigeration unit include one group of evaporator coil, the evaporation
Device coil pipe is located in the inner space of the impermeable container of the liquid;
One or more walls, one or more of walls essentially form storage area and integrally include second group of impermeable steaming
Depressed structure, the hollow interior space of second group of impermeable structure of steam are connected and form evaporator;And
The connector of both the condenser and the evaporator is attached to, the connector is in the hollow inside of the condenser
Liquid and vapor flow paths are formed between the hollow interior space of space and the evaporator, wherein the condenser, described
Evaporator and the connector form the heat transfer system with refrigerating plant one.
16. refrigerating plant according to claim 15, wherein essentially forming described the one of the impermeable container of liquid
Individual or multiple walls include multiple layers, and the condenser is oriented to and at least one layer of surface phase in the multiple layer
It is adjacent.
17. refrigerating plant according to claim 15, wherein essentially forming the institute of the impermeable container of the liquid
Stating one or more walls includes multiple layers, wherein at least one layer in one or more of layers includes non-planar regions with shape
Multiple sides of the container impermeable into the liquid.
18. refrigerating plant according to claim 15, wherein so that hollow interior space is connected and forms the condenser
Described first group impermeable structure of steam form branched structure.
19. refrigerating plant according to claim 15, wherein so that hollow interior space is connected and forms the condenser
First group of impermeable structure of steam and the impermeable container of the liquid one or more of walls at least one
Individual wall is integral.
20. refrigerating plant according to claim 15, wherein at least one active refrigeration unit includes:
The Part I of described group of evaporator coil, the Part I, which is oriented to and essentially formed the liquid, to be oozed
The outer surface of one or more of walls of saturating container is adjacent;
The Part II of described group of evaporator coil, the inside that the Part II is located at the impermeable container of the liquid are empty
In;And
Framework, the framework have size and dimension of the encapsulating for one or more containers of freezing phase-change material, the frame
Frame is in the Part I of described group of evaporator coil and thermally contacted.
21. refrigerating plant according to claim 15, wherein essentially forming the one or more of the storage area
Individual wall forms five sides of rectangular parallelepiped structure.
22. refrigerating plant according to claim 15, wherein so that hollow interior space is connected and forms the evaporator
Described second group impermeable structure of steam form branched structure.
23. refrigerating plant according to claim 15, wherein so that hollow interior space is connected and forms the evaporator
Second group of impermeable structure of steam and the impermeable container of the liquid one or more of walls at least one
Individual wall is integral.
24. refrigerating plant according to claim 15, wherein the connector includes multiple conduits, the multiple conduit
First end is attached to the evaporator and the second end is attached to the condenser, and wherein each conduit is positioned and configured
Into being provided between the inner space of the evaporator and the inner space of the condenser for liquid and steam
Bi-directional flow path.
25. refrigerating plant according to claim 15, further comprises:
At least one sensor, at least one sensor are located in the impermeable container of the liquid, one
Or between multiple walls and described group of evaporator coil;And
Controller, the controller are operatively attached at least one active refrigeration unit and the sensor.
26. refrigerating plant according to claim 15, further comprises:
The heat control device of the connector is connected to, the heat control device is positioned and configured to reversibly control the company
Connect the size of the hollow interior space of device;
At least one sensor, at least one sensor are located in the impermeable container of the liquid, one
Or between multiple walls and described group of evaporator coil;And
Controller, the controller are operatively attached to the heat control device and the sensor.
27. refrigerating plant according to claim 15, further comprises:
Framework, opening position of the framework in the condenser distal side, which is attached to, essentially forms the impermeable appearance of the liquid
The outer surface of one or more of walls of device, the framework have one or more containers of the encapsulating for freezing phase-change material
Size and dimension;And
At least one stretcher in the framework, the stretcher are oriented as one or more of containers being pressed against institute
State on one or more walls.
28. refrigerating plant according to claim 15, further comprises:
It is operatively attached to the power monitor of the controller.
29. refrigerating plant according to claim 15, further comprises:
The heat conducting wall of impermeable container one, the heat conducting wall can not ooze including protruding past the liquid with the liquid
The region at the edge of saturating container;
Shell, the impermeable appearance of the liquid that the shell is attached to the heat conducting wall, protruding past the heat conducting wall
The region at the edge of device, the shell include the thermal insulation layer adjacent with the region of the heat conducting wall;And
The framework being attached in the shell, the framework have encapsulating for one or more containers of freezing phase-change material
Size and dimension.
30. a kind of refrigerating plant, including:
One or more walls of the impermeable container of liquid are essentially formed, the container is configured to keep phase-change material
Inside refrigerating plant;
At least one active refrigeration unit, at least one active refrigeration unit include one group of evaporator coil, the evaporation
Device coil pipe is located in the inner space of the impermeable container of the liquid;
Sensor, the sensor are located in the impermeable container of the liquid, in one or more of walls and described group
Between evaporator coil;
One or more walls, one or more of walls essentially form storage area;
Heat transfer system, the heat transfer system include:First group of impermeable structure of steam, first group of impermeable structure of steam it is hollow
Inner space is connected and forms condenser, the condenser container impermeable with essentially forming liquid it is one
Or multiple walls are in thermo-contact;Second group of impermeable structure of steam, the hollow interior space phase of second group of impermeable structure of steam
Connect and form evaporator, the evaporator with essentially form storage area one or more of walls be in thermally contact;
And connector, the connector are attached to both the condenser and the evaporator, the connector is in the condenser
Hollow interior space and the evaporator hollow interior space between form liquid and vapor flow paths;And
Controller, the controller are operatively attached at least one active refrigeration unit and the sensor.
31. refrigerating plant according to claim 30, wherein essentially forming described the one of the impermeable container of liquid
Individual or multiple walls include multiple layers, and the condenser is oriented to and at least one layer of surface phase in the multiple layer
It is adjacent.
32. refrigerating plant according to claim 30, wherein essentially forming the institute of the impermeable container of the liquid
Stating one or more walls includes multiple layers, wherein at least one layer in one or more of layers includes non-planar regions with shape
Multiple sides of the container impermeable into the liquid.
33. refrigerating plant according to claim 30, including at least one master of described group of evaporator coil
Dynamic refrigeration unit includes:
The Part I of described group of evaporator coil, the Part I, which is oriented to and essentially formed the liquid, to be oozed
The outer surface of one or more of walls of saturating container is adjacent;
The Part II of described group of evaporator coil, the inside that the Part II is located at the impermeable container of the liquid are empty
In;And
Framework, the framework have size and dimension of the encapsulating for one or more containers of freezing phase-change material, the frame
Frame is in the Part I of described group of evaporator coil and thermally contacted.
34. refrigerating plant according to claim 30, wherein when the refrigerating plant is in use, positioned at the liquid
Impermeable container is interior, the sensor between one or more of walls and described group of evaporator coil is oriented to
Immerse in phase-change material.
35. refrigerating plant according to claim 30, wherein in the impermeable container of the liquid, described one
The sensor between individual or multiple walls and described group of evaporator coil includes:Temperature sensor.
36. refrigerating plant according to claim 30, wherein so that hollow interior space is connected and forms the condenser
First group of impermeable structure of steam and the impermeable container of the liquid one or more of walls at least one
Individual wall is integral.
37. refrigerating plant according to claim 30, wherein so that hollow interior space is connected and forms the evaporator
Second group of impermeable structure of steam and the impermeable container of the liquid one or more of walls at least one
Individual wall is integral.
38. refrigerating plant according to claim 30, wherein the connector includes multiple conduits, the multiple conduit
First end is attached to the evaporator and the second end is attached to the condenser, and wherein each conduit is positioned and configured
Into being provided between the inner space of the evaporator and the inner space of the condenser for liquid and steam
Bi-directional flow path.
39. refrigerating plant according to claim 30, further comprises:
At least one heat control device of the connector is connected to, at least one heat control device is positioned and configured to
Reversibly control the size of the hollow interior space of the connector.
40. refrigerating plant according to claim 30, further comprises:
Framework, opening position of the framework in the condenser distal side, which is attached to, essentially forms the impermeable appearance of the liquid
The outer surface of one or more of walls of device, the framework have one or more containers of the encapsulating for freezing phase-change material
Size and dimension;And
At least one stretcher in the framework, the stretcher are oriented as one or more of containers being pressed against institute
State on one or more walls.
41. refrigerating plant according to claim 40, wherein the framework is located in the impermeable container of second liquid.
42. refrigerating plant according to claim 30, further comprises:
It is operatively attached to the power monitor of the controller.
43. refrigerating plant according to claim 30, further comprises:
The heat conducting wall of impermeable container one, the heat conducting wall can not ooze including protruding past the liquid with the liquid
The region at the edge of saturating container;
Shell, the impermeable appearance of the liquid that the shell is attached to the heat conducting wall, protruding past the heat conducting wall
The region at the edge of device, the shell include the thermal insulation layer adjacent with the region of the heat conducting wall;And
The framework being attached in the shell, the framework have encapsulating for one or more containers of freezing phase-change material
Size and dimension.
Applications Claiming Priority (3)
Application Number | Priority Date | Filing Date | Title |
---|---|---|---|
US14/704,107 US9523522B2 (en) | 2013-11-27 | 2015-05-05 | Refrigeration devices including temperature-controlled container systems |
US14/704,107 | 2015-05-05 | ||
PCT/US2016/030658 WO2016179215A1 (en) | 2015-05-05 | 2016-05-04 | Refrigeration devices including temperature-controlled container systems |
Publications (2)
Publication Number | Publication Date |
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CN107709907A true CN107709907A (en) | 2018-02-16 |
CN107709907B CN107709907B (en) | 2020-10-02 |
Family
ID=57217840
Family Applications (1)
Application Number | Title | Priority Date | Filing Date |
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CN201680038183.3A Active CN107709907B (en) | 2015-05-05 | 2016-05-04 | Refrigeration device comprising a temperature-controlled container system |
Country Status (6)
Country | Link |
---|---|
EP (1) | EP3292362A4 (en) |
JP (1) | JP6766070B2 (en) |
CN (1) | CN107709907B (en) |
HK (1) | HK1250254A1 (en) |
WO (1) | WO2016179215A1 (en) |
ZA (1) | ZA201708197B (en) |
Cited By (1)
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---|---|---|---|---|
CN109240365A (en) * | 2018-10-22 | 2019-01-18 | 厦门浩添冷链科技有限公司 | Temperature control box |
Families Citing this family (3)
Publication number | Priority date | Publication date | Assignee | Title |
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US10707683B2 (en) * | 2016-09-29 | 2020-07-07 | Tokitae Llc | Directing or modulating electrical power drawn by one or more loads from a solar photovoltaic module array while maintaining a buffer margin |
WO2018226649A1 (en) * | 2017-06-06 | 2018-12-13 | Carrier Corporation | Transport refrigeration system |
CN111735255B (en) * | 2020-06-29 | 2021-12-14 | 赵军 | Refrigerator capable of removing peculiar smell |
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- 2016-05-04 JP JP2017557088A patent/JP6766070B2/en active Active
- 2016-05-04 EP EP16789968.1A patent/EP3292362A4/en active Pending
- 2016-05-04 CN CN201680038183.3A patent/CN107709907B/en active Active
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EP0098052A2 (en) * | 1982-06-26 | 1984-01-11 | THORN EMI Domestic Appliances Limited | Improvements in or relating to freezers |
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Also Published As
Publication number | Publication date |
---|---|
JP6766070B2 (en) | 2020-10-07 |
CN107709907B (en) | 2020-10-02 |
WO2016179215A1 (en) | 2016-11-10 |
EP3292362A4 (en) | 2018-12-05 |
ZA201708197B (en) | 2019-03-27 |
EP3292362A1 (en) | 2018-03-14 |
HK1250254A1 (en) | 2018-12-07 |
JP2018514742A (en) | 2018-06-07 |
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