JP2006194574A - Refrigerator - Google Patents

Abstract

<P>PROBLEM TO BE SOLVED: To provide a refrigerator high in reliability while reducing sound by suppressing the internal wall contact in a compressor caused by impact force in colliding with a refrigerator box body when closing a revolving door. <P>SOLUTION: The refrigerator has the box body 101 in which a storage chamber 106 equipped with revolving doors 113a, 113b opened/closed on a front face is disposed. A recess 120 recessed onto the uppermost stage storage space 122a side in the storage chamber 106 is formed over a top face and a back face of the box body 101, and the compressor 150 is installed in the recess 120. The revolving doors 113a, 113b are divided to open from the middle part around both left and right sides as fulcrums, and the compressor 150 is disposed avoiding a projection line from the front side of a parting line 130. The compressor 150 is thereby separated from the projection line from the front side of the parting line 130 largest in angular momentum to reduce impact force transmitted to the compressor 150 through the refrigerator box body when closing the revolving doors 113a, 113b, thus suppressing the internal wall contact in the compressor 150. <P>COPYRIGHT: (C)2006,JPO&NCIPI

Description

  The present invention relates to a refrigerator in which a compressor is mounted in a recess on the top surface of the refrigerator.

  In recent years, refrigerators are required to be more energy-saving from the viewpoint of protecting the global environment, and to be further silenced from the viewpoint of improving usability and storage capacity, as well as improving amenities.

  Hereinafter, the conventional refrigerator will be described with reference to the drawings.

  Conventionally, this type of refrigerator has a method in which a compressor or the like forming a machine room is installed on the top surface of the refrigerator main body, which is inconvenient when viewed from the user side, or on the upper back of the refrigerator main body (for example, , See Patent Document 1).

  FIG. 22 is a structural sectional view of a conventional refrigerator, and FIG. 23 is a longitudinal sectional view of a conventional refrigerator compressor.

  Generally, a refrigerator discharges cold air generated by a refrigeration cycle in which a compressor 50, an evaporator 28, a condenser (not shown), and an expander (not shown) are connected by piping or the like, It is used to reduce the temperature of food and store foods and the like frozen or refrigerated.

  The box body 1 of the refrigerator is composed of a refrigerator room 7, a vegetable room 10, and a freezer room 11 from above.

  The refrigerating chamber 7 has a rotary door 13 that is a rotary type with one end portion rotatably supported via a hinge 12 on the front surface of the box body 1. The vegetable compartment 10 has a drawer door 15d that is slidable forward and backward via rails (not shown), and the freezer compartment 11 is also reciprocated similarly to the vegetable compartment 10. It has the drawer door 15c which is a formula.

  The inner edges of the revolving door 13 and the drawer doors 15c and 15d are in close contact with the sealing surface 17 of the box body 1 so as to block the inside and outside of the refrigerator and absorb the impact when the door is closed. A gasket 16 is attached.

  In addition, a plurality of door pockets 14 for storing food and the like are provided inside the rotary door 13.

  Above the box body 1, a recess 20 is provided that is recessed toward the refrigerator compartment 7 over the top surface 18 and the back surface 19 of the box body 1. The refrigerator compartment 7 is provided with a plurality of storage shelves 21 for storing foods, etc., but the uppermost section partitioned by the uppermost shelf 22 that is generally not easy to use as viewed from the user side. The back side of the storage space 22a and the second-stage storage space 23a protrudes in a convex shape by a recess 20 provided in the upper back of the box body 1.

  The recess 20 is provided with a compressor 50, a machine room fan 90, a condenser (not shown), a dryer (not shown), and the like.

  The compressor 50 houses an electric element 58 composed of a stator 60 and a rotor 62 and a compression element 63 driven by the electric element 58 in an airtight container 52 (see, for example, Patent Document 2).

In the compression element 63, the crankshaft 68 supported by the block 59 rotates as the rotor 62 rotates, and the rotational movement of the eccentric shaft portion 67 of the crankshaft 68 is transferred to the piston 65 via the connecting means 69. Accordingly, the piston 65 reciprocates in the bore hole 73 formed in the block 59 to suck and compress the refrigerant 53, and is generally used in a domestic refrigerator.
JP-A-11-183014 Japanese Patent Publication No.62-44108

  However, in the above-described conventional configuration, when the rotary door 13 is closed in a state where food or the like is stored in the door pocket 14 of the rotary door 13, the gasket 16 and the seal surface 17 of the box body 1 collide with each other. The impact force that cannot be absorbed by the heat is transmitted from the seal surface 17 to the box body 1 and the refrigerator may swing back and forth. At this time, the inner wall of the sealed container 52 of the compressor 50 and the compression element 63 may come into contact with each other, and so-called hook contact noise may be sporadically generated.

  In addition, when the sealed container 52 and the block 59 constituting the compression element 63 come into contact with each other, since both are formed of metal, metal chipping pieces (fine fragments) are generated, and this is the block 59 and the crankshaft 68. If it is caught between shaft slides as represented by, abnormal wear and incompressibility (lock) may occur.

  On the other hand, a refrigerant pipe (not shown) for conveying the compressed refrigerant 53 to the next stroke, for example, a discharge thin tube, is disposed in the compressor 50. When frequent contact is made with the components constituting the element 63, metal fatigue accumulates intensively at the contact site, eventually leading to brittle fracture of the discharge capillaries and the possibility of the compressor 50 becoming incompressible.

  The present invention solves the above-described conventional problems, and provides a refrigerator that suppresses the hook contact of the compressor 50 due to an impact when the rotary door 13 is closed, can be quiet, and has high reliability. Objective.

  In order to solve the above-described conventional problems, a refrigerator according to the present invention has a box body in which a storage room having a revolving door that opens and closes on the front surface is arranged in the uppermost stage, and extends over the top surface and the back surface of the box body. Forming a recess recessed on the uppermost storage space side in the storage chamber, and storing the electric element composed of a stator and a rotor and a compression element driven by the electric element in a sealed container The compressor is disposed at a location other than the projection line from the front of the portion with the largest opening / closing track radius of the rotary door.

  This reduces the impact force transmitted to the compressor through the refrigerator box body when the rotary door is closed by moving the compressor away from the projection line from the front of the largest dividing line in the angular momentum of the rotary door. , It is possible to suppress the hook contact of the compressor.

  Further, the refrigerator of the present invention has a box body in which a storage room having a revolving door that opens and closes on the front surface is arranged in the uppermost stage, and the uppermost storage in the storage room extends over the top surface and the rear surface of the box body. A concave portion recessed on the space side is formed, and a compressor containing an electric element composed of a stator and a rotor and a compression element driven by the electric element is installed in the concave portion in the sealed container. The compression element is a reciprocating type provided with a compression chamber and a piston that reciprocates in the compression chamber, and the compression chamber is located at a place other than the projection line from the front of the portion with the largest opening and closing radius of the rotary door. Thus, the compressor is arranged.

  This reduces the impact force transmitted to the compression chamber through the refrigerator box body when the rotary door is closed by separating at least the compression chamber from the projection line from the front of the largest dividing line among the angular momentum of the rotary door. , It is possible to suppress the hook contact of the compressor.

  Further, the refrigerator of the present invention has a box body in which a storage room having a revolving door that opens and closes on the front surface is arranged in the uppermost stage, and the uppermost storage in the storage room extends over the top surface and the rear surface of the box body. An electric element composed of a stator and a rotor, a compression element driven by the electric element, and a high-pressure pipe provided in the compression element and the airtight container. Is installed in the recess, and the discharge capillary is arranged with respect to the central axis in the left-right direction of the compressor. The compressor is arranged such that the end of the compression element on the side opposite to the side where the compressor is located is located at a place other than the projection line from the front of the portion with the largest opening / closing radius of the revolving door.

  As a result, the compression element on the side facing the side where the discharge capillary tube is disposed at least with respect to the central axis in the left-right direction of the compressor from the projection line from the front of the largest dividing line in the angular momentum of the rotary door. At the end of the compression element on the side opposite to the side where the discharge capillary is disposed with respect to the central axis in the left-right direction of the compressor through the refrigerator box body when the end of the door is closed By reducing the transmitted impact force, it is possible to suppress the hook contact of the compressor.

  Since the refrigerator of the present invention suppresses the contact of the compressor with the hook, it is possible to achieve noise reduction and to provide a highly reliable refrigerator.

  The invention according to claim 1 has a box body in which a storage chamber having a revolving door that opens and closes on the front surface is arranged in the uppermost stage, and the uppermost stage in the storage chamber extends over the top surface and the rear surface of the box body. A recess is formed on the storage space side, and a compressor in which an electric element composed of a stator and a rotor and a compression element driven by the electric element is installed in the closed container is installed in the recess. Thus, the compressor is arranged at a place other than the projection line from the front of the portion having the largest opening / closing track radius of the revolving door.

  This reduces the impact force transmitted to the compressor through the refrigerator box body when the rotary door is closed by moving the compressor away from the projection line from the front of the largest dividing line in the angular momentum of the rotary door. In addition, it is possible to provide a highly reliable refrigerator that suppresses the contact between the compressors and reduces noise.

  The invention according to claim 2 has a box body in which a storage chamber having a revolving door that opens and closes on the front surface is arranged at the uppermost stage, and the uppermost stage in the storage chamber extends over the top surface and the rear surface of the box body. A recess is formed on the storage space side, and a compressor in which an electric element composed of a stator and a rotor and a compression element driven by the electric element is installed in the closed container is installed in the recess. The compression element is a reciprocating type including a compression chamber and a piston that reciprocates in the compression chamber, and the compression chamber is located at a place other than the projection line from the front of the largest opening / closing track radius of the rotary door. The compressor is arranged so as to be positioned.

  As a result, the reciprocating motion is performed in the compressor at least from the projection line from the front of the largest dividing line in the angular momentum of the revolving door, and therefore the revolving motion is separated from the revolving motion in the compressor, thereby revolving the revolving door. By reducing the impact force transmitted to the compression chamber through the refrigerator box main body when the refrigerator is closed, it is possible to suppress the hook contact of the compressor, reduce the noise, and provide a highly reliable refrigerator.

  The invention according to claim 3 has a box body in which a storage chamber having a revolving door that opens and closes on the front surface is arranged in the uppermost stage, and the uppermost stage in the storage chamber extends over the top surface and the rear surface of the box body. A recessed portion formed in the storage space is formed, and an electric element composed of a stator and a rotor is formed in a sealed container, a compression element driven by the electric element, and a high pressure provided in the compression element and the sealed container A compressor containing a discharge thin tube that is elastically connected to a pipe via a connecting portion is installed in the concave portion, and the discharge thin tube is arranged with respect to a central axis in the left-right direction of the compressor. The compressor is arranged such that the end of the compression element on the side opposite to the side that is facing is located at a place other than the projection line from the front of the portion with the largest opening / closing track radius of the revolving door.

  As a result, the angular momentum of the revolving door is farthest from the connecting line between the mechanical part consisting of the compression element and the electric element and the sealed container in the compressor, from the projection line from the front of the largest dividing line. For this reason, by separating a portion that is likely to vibrate greatly, it is possible to suppress the hook contact of the compressor, achieve noise reduction, and provide a highly reliable refrigerator.

  The invention according to claim 4 has a box body in which a storage chamber having a revolving door that opens and closes on the front surface is arranged in the uppermost stage, and the uppermost stage in the storage chamber extends over the top surface and the rear surface of the box body. A recess is formed on the storage space side, and a compressor in which an electric element composed of a stator and a rotor and a compression element driven by the electric element is installed in the closed container is installed in the recess. The width dimension in the left-right direction of the revolving door provided in the uppermost storage chamber is smaller than the full width dimension in the left-right direction of the box body, and a drawer door is provided adjacent to the revolving door. However, the compressor is arranged avoiding the projection line from the front of the dividing line that divides the revolving door into left and right.

  As a result, the opening / closing locus radius of the revolving door is reduced to reduce the angular momentum of the revolving door as a whole, and the compressor is separated from the projection line from the front of the largest dividing line among the angular momentum of the revolving door. By reducing the impact force that is transmitted to the compressor through the refrigerator box body when the revolving door is closed, it is possible to suppress the contact between the compressor and reduce noise and provide a highly reliable refrigerator.

  The invention according to claim 5 has a box body in which a storage chamber having a revolving door that opens and closes on the front surface is arranged in the uppermost stage, and the uppermost stage in the storage chamber extends over the top surface and the rear surface of the box body. A recess is formed on the storage space side, and a compressor in which an electric element composed of a stator and a rotor and a compression element driven by the electric element is installed in the closed container is installed in the recess. The compression element is a reciprocating type provided with a compression chamber and a piston that reciprocates in the compression chamber, and the width dimension in the left-right direction of the rotary door provided in the uppermost storage chamber is the left-right direction of the box body. And a drawer door is provided adjacent to the revolving door, and the compression chamber is disposed on the projection line from the front of the dividing line dividing the revolving door into left and right. It is arranged.

  As a result, the opening / closing locus radius of the revolving door is reduced to reduce the angular momentum of the revolving door as a whole, and at least the inside of the compressor from the projection line from the front of the largest dividing line among the angular momentum of the revolving door. Because of the reciprocating motion, the compression chamber, which is the source of vibration, is separated, and the impact force transmitted to the compressor through the refrigerator box body when the revolving door is closed is reduced, thereby suppressing the contact of the compressor with the hook. In addition, noise reduction can be achieved and a highly reliable refrigerator can be provided.

  The invention according to claim 6 has a box body in which a storage chamber having a revolving door that opens and closes on the front surface is arranged in the uppermost stage, and the uppermost stage in the storage chamber extends over the top surface and the rear surface of the box body. A recessed portion formed in the storage space is formed, and an electric element composed of a stator and a rotor is formed in a sealed container, a compression element driven by the electric element, and a high pressure provided in the compression element and the sealed container A compressor containing a discharge capillary tube elastically connected to a pipe via a connecting portion is installed in the recess, and the width dimension in the left-right direction of the rotary door provided in the uppermost storage chamber Is smaller than the full width dimension of the box body in the left-right direction and is provided with a drawer door adjacent to the revolving door, and the discharge thin tube is arranged with respect to the central axis in the left-right direction of the compressor. Compression element on the side opposite to the side where it is placed The end, in which is arranged so as to avoid the projection line from the front of the dividing lines for dividing the revolving door to the left and right.

  As a result, the opening / closing locus radius of the revolving door is reduced to reduce the angular momentum of the revolving door as a whole, and at least the inside of the compressor from the projection line from the front of the largest dividing line among the angular momentum of the revolving door. By separating the part that is most likely to vibrate because it is farthest from the connection part between the mechanical part consisting of the compression element and the electric element and the sealed container, it can reduce the contact between the compressor and reduce noise and reliability. A high refrigerator can be provided.

  According to a seventh aspect of the present invention, the compressor is arranged in a projection plane from the front of the rotary door.

  By arranging the compressor in the projection surface from the front of the revolving door, it is compressed from the outer frame line of the revolving surface of the revolving door that is affected by the impact force that is propagated by collision between the revolving door and the box body. By reducing the impact force transmitted to the compressor through the refrigerator box body when the machine is released and the revolving door is closed, the compressor's hook contact is suppressed, noise reduction is achieved, and a highly reliable refrigerator is provided. be able to.

  In the invention according to claim 8, the rotary door on the side where the compressor is arranged is further divided into upper and lower parts, and the compressor is arranged in the projection plane from the front of the upper and lower divided rotary doors. .

  As a result, the radius of the revolving door opening / closing locus is reduced and the revolving doors are subdivided to significantly reduce the angular momentum when each revolving door is closed, and the revolving door and the box body are By separating the compressor from the outer frame line of the projection surface of the revolving door that is affected by the impact force that is propagated by collision, the compressor can be kept quiet and noise reduction can be achieved, resulting in a highly reliable refrigerator. Can be provided.

  In addition, by subdividing the revolving doors, especially in the hot summer, by opening only the necessary revolving doors among the subdivided revolving doors and putting food in and out, reducing the cold air escaping out of the warehouse, The operating rate of the compressor can be suppressed, and a refrigerator with low power consumption can be provided.

  According to the ninth aspect of the present invention, the drawer chamber is arranged at the lower part of the uppermost storage chamber.

  As a result, the compressor is separated from the drawer chamber, and the impact force caused by the collision between the drawer door and the box body when the drawer chamber is pushed in is difficult to be transmitted to the compressor. Noise reduction can be achieved and a highly reliable refrigerator can be provided.

  According to a tenth aspect of the present invention, the compression element is a reciprocating type provided with a compression chamber and a piston that reciprocates in the compression chamber, and the reciprocating direction of the piston collides with the box body when the rotary door closes. The compressor is mounted so as to be positioned in a direction other than the collision direction.

  This makes the vibration direction of the compressor inconsistent with the vibration direction of the compressor due to the impact when the revolving door is closed, preventing the compressor from accelerating the amplitude and avoiding the occurrence of contact with the hook, thereby reducing the noise. Therefore, a highly reliable refrigerator can be provided.

  The invention according to claim 11 is a reciprocating type in which the compression element includes a compression chamber and a piston that reciprocates in the compression chamber, and the reciprocating direction of the piston collides with the box body when the rotary door closes. The compressor is mounted so as to be positioned in a direction substantially perpendicular to the collision direction.

  As a result, the vibration direction of the compressor due to the impact when the revolving door is closed and the vibration direction of the compressor are set to the vertical direction to prevent acceleration of the amplitude in the reciprocating direction of the compressor and By avoiding the noise reduction, it is possible to provide a highly reliable refrigerator.

  According to a twelfth aspect of the present invention, the discharge thin tube that elastically connects the compression element and the high-pressure pipe of the sealed container is formed in a direction substantially parallel to a collision direction that collides with the box body when the door is closed. It has the part which is.

  As a result, it has a portion where rigidity is increased by being substantially parallel to the direction in which the impact force when the rotary door is closed to the discharge capillary is closed, so when the impact is effectively applied by the discharge capillary By suppressing the swing of the mechanical part, which is a mechanical part, noise reduction can be achieved and a highly reliable refrigerator can be provided.

  According to a thirteenth aspect of the present invention, a mechanical part composed of an electric element and a compression element of a compressor is elastically supported in a sealed container via a support part, and the compressor is fixed to a lower part of the sealed container. The pitch between the legs adjacent to each other in a substantially parallel direction with respect to the collision direction that collides with the box body when the rotary door is closed is elastically installed in the concave portion via a plurality of legs. The pitch between the support portions adjacent to each other in the direction substantially parallel to the collision direction of the collision with the box body when the revolving door of the support portion is closed is formed.

  As a result, the amplitude of the vibration received from the outside in a direction substantially parallel to the collision direction that collides with the box body when the revolving door is closed is smaller in the support portion in the sealed container than in the leg portion of the sealed container. Therefore, since the contact of the compressor with the hook is suppressed, it is possible to reduce the noise by suppressing the swinging of the mechanical part, which is a mechanical part, and to provide a highly reliable refrigerator.

  According to a fourteenth aspect of the present invention, a mechanical part composed of an electric element and a compression element of a compressor is elastically supported in a sealed container via a support part, and the compressor is fixed to a lower part of the sealed container. A plurality of legs provided elastically in the recesses through elastic members provided on the legs, and a vertical center of gravity of the compressor and a contact between the legs of the compressor and the elastic members. The distance to the surface is shorter than the distance between the center of gravity of the compressor in the vertical direction and the lower end surface of the sealed container.

  As a result, the amplitude of vibration when an external force is applied to the compressor is such that the entire compressor vibrates around the center of gravity where the vicinity of the center of gravity is the smallest and increases as it moves away from the center of gravity. By positioning the contact surface between the leg and the elastic member in a close part, when an external force is applied to the compressor from the refrigerator side, vibration of the entire compressor can be reduced. Vibration transmission can be reduced, and a high-quality refrigerator free from unpleasant vibrations and noise generation due to vibrations can be provided.

  According to a fifteenth aspect of the present invention, a mechanical part composed of an electric element and a compression element of a compressor is elastically supported in a sealed container via a support part, and the compressor is fixed to a lower part of the sealed container. The elastic member provided in the plurality of legs is elastically installed in the recess, and the contact surface between the leg of the compressor and the elastic member is more than the lower end surface of the sealed container. It is located above.

  As a result, the amplitude of vibration when an external force is applied to the compressor is such that the entire compressor vibrates around the center of gravity where the vicinity of the center of gravity is the smallest and increases as it moves away from the center of gravity. By positioning the contact surface between the leg and the elastic member in a close part, when an external force is applied to the compressor from the refrigerator side, vibration of the entire compressor can be reduced. Vibration transmission can be reduced, and a high-quality refrigerator free from unpleasant vibrations and noise generation due to vibrations can be provided.

  The invention according to claim 16 includes a box body in which a storage chamber having a revolving door that opens and closes on the front surface is disposed at the top, and a deceleration function unit that decelerates a closing speed of the door when the door is closed. It has.

  As a result, by reducing the impact force transmitted to the compressor through the refrigerator box body when the revolving door is closed, it is possible to suppress the compressor's hook contact, reduce the noise, and provide a highly reliable refrigerator. it can.

  Hereinafter, embodiments of the present invention will be described with reference to the drawings. The present invention is not limited to the embodiments.

(Embodiment 1)
1 is a cross-sectional view of a configuration of a refrigerator according to Embodiment 1 of the present invention, FIG. 2 is a front view of the refrigerator according to the embodiment, and FIG. 3 is an opening / closing locus of a revolving door when the refrigerator according to the embodiment is viewed from above. 4 is a longitudinal sectional view of the compressor as seen from the back of the refrigerator in the same embodiment, FIG. 5 is a plan sectional view of the compressor as seen from the top of the refrigerator in the same embodiment, and FIG. It is a characteristic view which shows the behavior of the compressor when the rotary door in the form of is closed.

  Hereinafter, embodiments of the present invention will be described with reference to FIGS.

  1 to 6, the refrigerator includes a compressor 150, a discharge pipe 140 connected to the compressor 150, a condenser (not shown), a capillary 142 that is a decompressor, and a dryer that removes moisture ( (Not shown), an evaporator 128 in which the internal fan 191 is disposed in the vicinity, and a refrigeration cycle configured by connecting the suction pipe 141 in an annular shape are built in the box body 101, and are generated by this refrigeration cycle. The cool air is discharged, the temperature in the storage 106 is lowered, and food and the like are stored frozen and refrigerated.

  The box body 101 injects a foam insulating material 104 into a space formed by an inner box 102 obtained by vacuum-forming a resin body such as ABS and an outer box 103 using a magnetic body made of a metal material such as a pre-coated steel plate. It has a thermal insulation wall. For the heat insulator 104, for example, a hard urethane foam, a phenol foam, a styrene foam, or the like is used. In addition, if hydrocarbon-based cyclopentane is used as the foaming material, it is even better from the viewpoint of preventing global warming.

  The box main body 101 is divided into a plurality of heat insulating compartments, and doors 105 are provided on the front surface of the box main body 101, respectively. The insulated storage chamber 106 is, from above, a refrigeration chamber 107, a switching chamber 109a and an ice making chamber 109b, a vegetable chamber 110, and a freezing chamber 111 provided side by side.

  The refrigerating chamber 107 includes two rotary doors 113a and 113b which are divided by a dividing line 130 from the middle of the front surface and whose left and right sides are supported as pivots via hinges 112. Is provided. When viewed from the front, the ratio of the width of the left rotating door 113a to the width of the right rotating door 113b is about 4: 6. Each rotary door 113a, 113b is provided with a plurality of door pockets 114 as spaces for storing food and the like.

  On the other hand, the switching chamber 109a, the ice making chamber 109b, the vegetable chamber 110, and the freezing chamber 111 are all drawer chambers 108, and all of them are reciprocating slidable forward and backward via rails (not shown). Drawer doors 115a, 115b, 115c, and 115d that are of the formula are provided.

  The inner edges of the revolving doors 113a and 113b and the drawer doors 115a, 115b, 115c, and 115d are in close contact with the seal surface 117 of the box body 101 to block the inside and outside of the refrigerator, and each door 105 is closed. A gasket 116 for absorbing the impact is attached.

  The gasket 116 is formed by extruding a soft vinyl chloride resin body having characteristics such as durability, flexibility, and economy and having excellent processability. The gasket 116 incorporates permanent magnets and a large number of air pockets divided by a partition wall, and the seal surface 117 on the box body 101 side to which the gasket 116 is closely attached should be one end surface of the outer box 103. Thus, it becomes a magnetic body.

  Above the box body 101, a recess 120 is provided that is recessed toward the refrigerator compartment 107 over the top surface 118 and the back surface 119 of the box body 101. The refrigerator compartment 107 is provided with a plurality of storage shelves 121 for storing food and the like, and the recess 120 is located on the uppermost storage space 122 a side partitioned by the uppermost shelf 122 and the inner box 102 in the refrigerator compartment 107. , And travels in a convex manner toward the second shelf storage space 123 a defined by the second shelf 123 and the uppermost shelf 122. More preferably, the indoor side bottom wall surface 125 of the convex portion 124 and the shelf bottom portion 122b of the uppermost shelf 122 are substantially the same horizontal plane.

  The recess 120 is provided with a top cover 126 fixed with screws or the like, and includes a compressor 150, a machine room fan 190, a condenser (not shown), a dryer (not shown), a discharge pipe 140, and a suction pipe. A part of the pipe 141 is accommodated. The compressor 150 is positioned behind the rotary door 113b, avoiding the projection line 131 from the front of the dividing line 130 that divides the rotary doors 113a and 113b into left and right. In addition, the upper portion of the top cover 126 is substantially flush with the top surface 118, and the top portion 151 of the compressor 150 is located lower than the top surface 118.

  Also, with the aim of improving the assembly workability and serviceability of the refrigerator, in order to reduce the density of the piping and to make the piping connection portion visible from the rear, the compression on the near side as viewed from the rear surface 119 of the refrigerator The discharge pipe 140 and the suction pipe 141 are distributed to the left and right and welded to the discharge tube 140a and the suction tube 141a formed on the side surface of the machine 150, respectively.

  Next, the configuration of the compressor 150 will be described.

  A mortar-shaped lower container 172 and a reverse mortar-shaped upper container 173 formed by deep drawing of a rolled steel plate having a thickness of 2 to 4 mm are engaged, and the engagement portion is welded all around to form a sealed container 152. The Inside the airtight container 152 is filled with isobutane (R600a) as the refrigerant 153, stores mineral oil as the oil 154, and a mechanical unit 174 that is a mechanical part including the electric element 158 and the compression element 163 is disposed. . The mechanism 174 is elastically supported via a spring 170 between a support portion 160 a fixed to the bottom of the sealed container 152 and a support portion 160 b fixed to the lower end of the electric element 158.

  The electric element 158 includes a stator 160 fixed below the block 159 and connected to an inverter drive circuit (not shown), and a rotor 162 containing a permanent magnet and fixed below the main shaft portion 161. An electric motor for driving the inverter is formed and driven by the inverter driving circuit at a plurality of operating frequencies including an operating frequency lower than the commercial power supply frequency.

  The compression element 163 includes a block 159 that forms a cylinder 164, a piston 165 that is reciprocally fitted in a bore hole 175 of the cylinder 164 that is a compression chamber, and a main shaft portion 161 that is supported by a bearing 166 of the block 159. A crankshaft 168 composed of an eccentric shaft portion 167 and a connecting rod 169 connecting the eccentric shaft portion 167 and the piston 165 are provided, and the rotational motion of the crankshaft 168 is converted into the reciprocating motion of the piston 165.

  The reciprocating direction of the piston 165 (see arrow P in FIG. 6) is substantially parallel to the front surface 143 of the refrigerator. That is, the reciprocating direction of the piston 165 is positioned in a direction that is substantially perpendicular to the collision direction that collides with the box body when the rotary door is closed.

  In addition, the space volume of the compression chamber 176 formed by the piston 165 and the bore hole 175 increases or decreases due to the reciprocating motion of the piston 165, so that the refrigerant 153 in the sealed container 152 is supplied to the suction port 178 of the suction muffler 177. From the discharge muffler 180 formed in the block 159, after being sucked in and compressed in the compression chamber 176 via a valve (not shown) provided inside the cylinder head 179. The gas is discharged to the discharge pipe 140 outside the sealed container 152 through the discharge tube 140 a which is a high-pressure pipe provided in the sealed container 152.

  The discharge thin tube 171 is a steel tube having an inner diameter of 1.5 mm to 3.0 mm, and a portion 171a extending in a substantially vertical direction with respect to the front surface 143 of the refrigerator by using an L-shape or a U-shape is used in a substantially vertical direction. The discharge thin tube 171 is formed to have high rigidity. That is, the discharge thin tube 171 that elastically connects the compression element 163 and the discharge pipe 140 that is a high-pressure pipe provided in the sealed container 152 has a collision direction that collides with the box body 101 when the rotary door 113a is closed. By having the portion 171a formed in a substantially parallel direction, the rigidity in a direction substantially parallel to the collision direction that collides with the box body 101 when the rotary door 113a is closed is increased. Of course, the portion 171a formed in a direction substantially parallel to the collision direction is not limited to a straight line but may have a curved line or a curved portion. In addition, the discharge thin tube 171 and the discharge tube 140a of the sealed container 152 are elastically joined at the connection portion 181.

  A plurality of legs 155 are fixed to the lower side of the sealed container 152, and elastic members are fixed to pins 127 fixed to the recess 120 of the refrigerator via elastic members 156 locked to the legs 155. The position is fixed by loosely fitting the hole 157 of 156. The pitch Wm between the legs 155 in the parallel direction with respect to the front surface 143 of the refrigerator is formed to be longer than the diameter Wc of the sealed container 152 in the parallel direction.

  Next, the impact force at the time of collision with the box body 101 when the rotary doors 113a and 113b are closed and the influence on the compressor 150 will be described.

  The arc 132a is an opening / closing locus of the end of the rotating door 113a opposite to the hinge 112 side, and the arc 132b is an opening / closing locus of the end of the rotating door 113b opposite to the hinge 112 side.

  In general, there is angular momentum as a quantity representing the momentum of the rotating body. Angular momentum is proportional to each of mass, circumferential speed, and rotational radius. That is, when the rotary doors 113a and 113b are closed, the larger the angular momentum given to the rotary doors 113a and 113b, the side that receives the rotary doors 113a and 113b and the rotary doors 113a and 113b, that is, the seal surface of the box body 101. The impact force generated at the time of the collision 117 is increased. Further, the impact force affects the vertical direction with respect to the front surface 143 of the refrigerator.

  The rotary door 113b will be described as an example. The factor that affects the overall angular momentum is the mass immediately before the collision between the rotary door 113b and the food stored in the door pocket 114 and the seal surface 117. The circumferential speed of the revolving door 113b and the lateral width of the revolving door 113b, that is, the radius of the arc 132a of the opening / closing locus of the revolving door 113b. These dominate the overall impact force applied to the refrigerator box body 101 when the gasket 116 and the seal surface 117 collide.

  Further, from the viewpoint of the distribution of the angular momentum given to the rotary door 113b, the circumferential speed increases as the point moves away from the hinge 112, which is the rotation fulcrum of the rotary door 113b, and the angular momentum increases. If food or the like is stored in the door pocket 114 without being biased, normally, the angular momentum is maximized at the extreme end of the revolving door 113b opposite to the hinge 112.

  When the revolving door 113b is closed, a magnetic force acts between the permanent magnet built in the gasket 116 and the seal surface 117 made of a magnetic material, and the gasket 116 comes into close contact with the seal surface 117. At this time, although the air pocket built in the gasket 116 absorbs the impact force to some extent, the impact force that cannot be absorbed is transmitted to the box body 101 of the refrigerator through the seal surface 117.

  Nowadays, the main capacity of the main refrigerator capacity band is 300L or more. Thereby, as the refrigerator size increases, the radius of the arc 32 that is the opening / closing locus of the rotary door 13 increases, and in addition, the storage amount in the door pocket 14 increases, so that the rotary door 13 combined with stored items and the like. It is inferred that the total weight of the inevitably becomes heavy, and the impact force applied to the box body 1 when the rotary door 13 is closed increases synergistically.

  Hereinafter, the mechanism per hook of the compressor will be described with reference to FIG.

  The discharge tube 140 a and the suction tube 141 a formed on the side surface of the sealed container 152 are welded to the discharge pipe 140 and the suction pipe 141 formed on the refrigerator side, respectively, and are fixed below the sealed container 152. Since the leg 155 is fixed to the installation surface 120a of the recess 120 via the pin 127, it can be said that the sealed container 152 constituting the outer shell of the compressor 150 is in a state of being restrained by the refrigerator. . Therefore, when the refrigerator swings in the front-rear direction (arrow B1 direction, B2 direction in the figure) due to the impact (arrow A in the figure) from the front surface 143 when the rotary door 113b is closed, the sealed container 152 is pulled to the refrigerator. In the same manner, it will swing back and forth.

  On the other hand, inside the compressor 150 at the moment when an impact is applied, the mechanical force 174, which is a mechanical part composed of the compression element 163 and the electric element 158, has an inertial force apparently in the B2 direction due to elastic support (see FIG. 4). In addition to the action, the support 160a fixed to the bottom of the sealed container 152 is displaced in the direction of the arrow B1 along with the vibration of the sealed container 152 and welded to the discharge tube 140a fixed to the sealed container 152. The force that pulls the mechanism 174 in the direction of the arrow B <b> 1 through the discharged narrow tube 171 acts, and the spring 170 is twisted. Thereafter, due to the restoring force due to the elasticity of the spring 170 and the discharge thin tube 171, the mechanism 174 causes the arcuate arrows C 1 and C 2 in the direction of the arcs centering on the connection portion 181 where the discharge thin tube 171 and the discharge tube 140 a of the sealed container 152 are joined. Will swing around.

  Therefore, in the present embodiment, the end 150b of the compression element on the side facing the side where the discharge thin tube 171 is disposed with respect to the central axis 150a in the left-right direction of the compressor 150, and the rotary door 213b on the left and right. It is arranged avoiding the projection line from the front of the dividing line 130 to be divided.

  As a result, the opening / closing locus radius of the rotary door 213b is reduced to reduce the angular momentum of the rotary door 213b as a whole, and among the angular momentum of the rotary door 213b, from the projection line from the front of the largest dividing line 130, At least the portion of the compressor 150 that is likely to vibrate because it is separated from the connecting portion 181 of the sealed container 152 and the mechanical portion consisting of the compression element 163 and the electric element 158 is separated from the hook of the compressor 150. Therefore, it is possible to provide a highly reliable refrigerator that can be suppressed and quiet.

  It is considered that the swinging of the sealed container 152 and the swinging of the mechanism 174 contacted the mechanism 174 and the inner wall of the sealed container 152 to generate a so-called hook contact.

  However, in the present embodiment, the two rotary doors 113a and 113b are provided so as to open to the left and right sides at the dividing line 130 that divides from the middle of the door 105 of the refrigerator compartment 107 into a ratio of 4: 6. The compressor 150 is disposed so as to avoid the projection line 131 from the front of the dividing line 130.

  Thereby, the arc 132a and the arc 132b radius of the opening / closing locus of the rotating doors 113a and 113b are smaller than the conventional one, and the rotating doors 113a and 113b are used as two pieces to distribute the stored items in the rotating doors. The total weight of the revolving doors combined with the weight of food to be stored is apparently lightened, the overall angular momentum given to the individual revolving doors 113a and 113b is reduced, and the refrigerator box body The impact force applied to the 101 side is effectively reduced.

  In addition, by arranging the compressor 150 so as to avoid the position where the largest angular momentum is given among the angular momentum of the rotary door 113b, it is difficult for the impact when the rotary doors 113a and 113b are closed to be transmitted to the compressor. It is configured.

  Inventor's actual machine test using a 400-liter refrigerator (a weight of about several to 10 kg is put in the door pocket of the revolving door, the opening and closing speed of the revolving door is 6 to 12 times per minute, and the opening and closing frequency is several tens of thousands to 200,000. According to a test for evaluating the frequency with which the compressor 150 hits the hook, as compared with the refrigerator in which the compressor is disposed at the position where the largest angular momentum of the rotary door 113b is given. It has been confirmed that the frequency per hook decreases by about 50%.

  From the above, it is possible to suppress the hook contact of the compressor 150 due to an impact when the rotary doors 113a and 113b are closed, and abnormal wear or discharge caused by biting the generated chipping pieces by the hook contact. Fatigue fracture of the thin tube 171 can be avoided. Therefore, noise reduction can be achieved and a highly reliable refrigerator can be provided.

  In the present embodiment, when the refrigerator is viewed from the front, the ratio of the width of the left rotating door 113a to the width of the right rotating door 113b is about 4: 6. If the arrangement of the compressor 150 is avoided on the line 131, the same effect can be obtained even if the width ratio of the left and right revolving doors is changed.

  In this embodiment, drawer doors 115 a to 115 d for opening and closing the drawer chamber 108 are installed below the refrigerator compartment 107.

  Even when the drawer chamber 108 is pushed in, the impact is naturally transmitted to the box body 101 of the refrigerator. However, the compressor 150 is arranged away from the drawer chamber 108 so that the impact force when the drawer chamber 108 is pushed in is reduced. The configuration is difficult to be transmitted to the compressor 150, and the hook contact of the compressor 150 can be avoided.

  Furthermore, according to the present embodiment, the compressor 150 is installed in the recess 120 so that the reciprocating direction of the piston 165 is substantially parallel to the front surface 143 of the refrigerator.

  Here, the compressor 150 itself becomes a vibration generation source during operation. In general, vibrations generated from the reciprocating mechanism 174 include those caused by the rotational movement of the crankshaft 168 and frictional sliding during the reciprocating movement of the piston 165. Therefore, the vibration of the compressor 150 in the direction parallel to the reciprocating motion of the piston 165 (arrow P in FIG. 6) is relatively high.

  Based on this, in the present embodiment, the direction in which the impact force is transmitted when the rotary door is closed (the direction of arrow A in FIG. 6) and the reciprocating direction of the piston 165 (the direction of arrow P in FIG. 6). With the substantially vertical relationship, the direction in which the compressor 150 vibrates from the outside does not coincide with the direction in which the compressor 150 vibrates from the inside, so that it is possible to avoid the occurrence of frequent hitting of the shuttle due to the doubled amplitude of the compressor 150.

  Further, according to the present embodiment, the discharge thin tube 171 is formed so as to increase the rigidity in the substantially vertical direction by using the portion 171a extending in the direction perpendicular to the front surface 143 of the refrigerator. Yes.

  As a result, the portion 171a of the discharge thin tube 171 having high rigidity has a substantially parallel relationship with the direction (arrow A direction) in which the impact force is transmitted when the rotary doors 113a and 113b are closed. By making it difficult to deform, the swinging of the mechanism 174 (in the directions of arrows C1 and C2) when an impact is applied can be suppressed. Further, in order to secure a highly rigid portion 171a, if the space volume for meandering the discharge tubule 171 is insufficient, the same effect can be obtained even if the rigidity is increased by relatively increasing the thickness of the thin tube of the portion 171a. .

  On the other hand, the vibration of the mechanism 174 is transmitted to the refrigerator due to the relatively low rigidity of the portion of the discharge capillary 171 parallel to the reciprocating direction of the piston 165 (arrow P direction) and the height direction of the compressor 150. Can also be suppressed.

  According to the present embodiment, as shown in FIG. 6, the pitch between the legs 155a and 155b adjacent to each other in a direction substantially parallel to the collision direction A that collides with the box body 101 when the rotary door 113a is closed. Wm is formed to be longer than the pitch Wc between the support portions 152a and 152b adjacent to each other in a direction substantially parallel to the collision direction A.

  As a result, the pitch Wm between the legs 155a and 155b is increased, and the amplitude of vibration received from the outside in a direction substantially parallel to the collision direction A that collides with the box body 101 when the rotary door 113a is closed. Since the support portions 152a and 152b in the sealed container 152 are smaller than the leg portions 155a and 155b of the sealed container, the contact of the compressor 150 with the hook is suppressed. In addition, noise reduction can be achieved and a highly reliable refrigerator can be provided.

(Embodiment 2)
7 is a sectional view of the structure of the refrigerator according to the second embodiment of the present invention, FIG. 8 is a front view of the refrigerator according to the same embodiment, and FIG. 9 is an opening / closing locus of the revolving door as viewed from above the refrigerator according to the same embodiment. FIG. 10 is a schematic cross-sectional view, and FIG. 10 is a schematic cross-sectional view of the opening / closing locus of the revolving door when the refrigerator according to the embodiment is viewed from the lateral direction.

  Hereinafter, the description of the present embodiment will proceed based on FIG. 7, FIG. 8, FIG. 9, and FIG. 10, but the same components as those of the first embodiment will be denoted by the same reference numerals and detailed description thereof will be omitted.

  7 to 10, the refrigerator includes a compressor 150, a discharge pipe 140 connected to the compressor 150, a condenser (not shown), a capillary 142 that is a decompressor, and a dryer that removes moisture ( (Not shown), an evaporator 128 in which the internal fan 191 is disposed in the vicinity, and a refrigeration cycle formed by connecting the suction pipe 141 in an annular shape are built in the box body 201 and are generated by this refrigeration cycle. The cool air is discharged, the temperature in the storage 206 is lowered, and food and the like are frozen and refrigerated.

  The box main body 201 includes a heat insulating wall formed by injecting a heat insulating body 104 that is foam-filled into a space formed by the inner box 202 and the outer box 203.

  The box body 201 is divided into a plurality of heat insulating sections, and doors 205 are provided on the front surface of the box body 201, respectively. The storage compartment 206, which is insulated, is a refrigerator compartment 207, a switching compartment 109a and an ice making compartment 109b, a vegetable compartment 110, and a freezer compartment 111 provided side by side.

  The refrigerating room 207 is provided with two rotary doors 213a and 213b which are divided from the middle of the front face and are supported rotatably at both ends via hinges 112 with both left and right sides as fulcrums. When viewed from the front, the ratio of the width of the left rotating door 213a to the width of the right rotating door 213b is about 4: 6. Each of the rotary doors 213a and 213b is provided with a plurality of door pockets 114 as spaces for storing food and the like.

  On the other hand, the switching chamber 109a, the ice making chamber 109b, the vegetable chamber 110, and the freezing chamber 111 are all formed as a drawer chamber 108, and all of them are slidable forward and backward through rails (not shown). Dynamic drawer doors 115a, 115b, 115c, and 115d are provided.

  The inner edges of the revolving doors 213a and 213b and the drawer doors 115a, 115b, 115c, and 115d are in close contact with the seal surface 117 of the box body 101 to block the inside and outside of the refrigerator, and each door 205 is closed. A gasket 116 for absorbing the impact is attached.

  Above the box body 201, a recess 220 is provided that is recessed toward the refrigerator compartment 207 across the top surface 218 and the back surface 219 of the box body 201. The refrigerator compartment 207 is provided with a plurality of storage shelves 221 for storing food and the like, and the recess 220 is formed on the side of the uppermost storage space 222 a defined by the uppermost shelf 222 in the refrigerator compartment 207 and the inner box 202. , And travels in a convex manner toward the second shelf storage space 223 a defined by the second shelf 223 and the uppermost shelf 222.

  The recess 220 is provided with a top cover 226 fixed with screws or the like, and includes a compressor 150, a machine room fan 190, a condenser (not shown), a dryer (not shown), a discharge pipe 140, and a suction pipe. A part of the pipe 141 is accommodated. The compressor 150 is completely within the projection surface 233 so that a part of the compressor 150 is not hung on the outer frame line 234 of the projection surface 233, more preferably within the projection surface 233 from the front of the rotary door 213b. Be placed. The top of the top cover 226 is substantially flush with the top surface 218.

  According to the present embodiment, the radius of the arc 232a and the arc 232b of the opening / closing locus of the rotary doors 213a and 213b is smaller than that of the conventional single door type. Furthermore, by disposing the revolving doors 213a and 213b in two pieces and distributing the items stored in the revolving doors, the total weight including the weight of food stored in the weight per revolving door is apparently reduced. Therefore, the overall angular momentum given to the individual rotary doors 213a and 213b can be reduced, and the impact force applied to the box body 201 side of the refrigerator can be effectively reduced.

  In addition, in the present embodiment, the compressor 150 is disposed in the projection surface 233 from the front of the rotary door 213b, more specifically, avoiding the outer frame line 234 of the projection surface 233, whereby the rotary door 213b. In addition to the projection line 234a of the projection plane 233 to which the largest angular momentum is given, the projection line 234c of the projection plane 233 on the top surface 218 side where the impact force is thought to propagate directly is also separated. The impact force is difficult to be transmitted to the compressor 150.

  Inventor's actual machine test using a 400-liter refrigerator (a weight of about several to 10 kg is put in the door pocket of the revolving door, the opening and closing speed of the revolving door is 6 to 12 times per minute, and the opening and closing frequency is several tens of thousands to 200,000. According to a test for evaluating the frequency with which the compressor hits the hook, compared to a refrigerator in which the compressor 150 is disposed at a position where the largest angular momentum of the rotary door 213b is given. It has been confirmed that the frequency per hook decreases by about 60%.

  From the above, it is possible to suppress the hook contact of the compressor 150 due to the impact when the rotary doors 213a and 213b are closed, and the abnormal wear due to the biting of the chipping pieces generated by the hook contact and the fatigue of the piping Compression failure due to breakage can be avoided. Therefore, noise reduction can be achieved and a highly reliable refrigerator can be provided.

  In this embodiment, when the refrigerator is viewed from the front, the ratio of the width of the left rotating door 213a to the width of the right rotating door 213b is about 4: 6. If the compressor 150 is arranged, the same effect can be obtained even if the width ratio of the left and right revolving doors is changed.

(Embodiment 3)
FIG. 11 is a sectional view of the structure of the refrigerator according to the third embodiment of the present invention, FIG. 12 is a front view of the refrigerator according to the same embodiment, and FIG. 13 is an opening / closing locus of the revolving door as viewed from above the refrigerator according to the same embodiment. FIG. 14 is a schematic cross-sectional view, and FIG. 14 is a schematic cross-sectional view of the opening / closing locus of the revolving door when the refrigerator according to the embodiment is viewed from the lateral direction.

  Hereinafter, the description of the present embodiment will proceed based on FIG. 11, FIG. 12, FIG. 13, and FIG. 14, but the same components as those of the first embodiment will be denoted by the same reference numerals and detailed description thereof will be omitted.

  11 to 14, the refrigerator includes a compressor 150, a discharge pipe 140 connected to the compressor 150, a condenser (not shown), a capillary 142 serving as a decompressor, and a dryer for removing moisture ( (Not shown), an evaporator 128 in which the internal fan 191 is disposed in the vicinity, and a refrigeration cycle formed by connecting the suction pipe 141 in an annular shape are built in the box body 301, and are generated by this refrigeration cycle. The cool air is discharged, the temperature in the storage 306 is lowered, and the food is stored frozen.

  The box main body 301 includes a heat insulating wall formed by injecting a heat insulating body 104 to be foam-filled into a space formed by an inner box 302 and an outer box 303.

  The box body 301 is divided into a plurality of heat insulating sections, and a door 305 is provided on the front surface of the box body 301. The insulated storage compartment 306 is a refrigeration compartment 307, a switching compartment 109a and an ice making compartment 109b, a vegetable compartment 110, and a freezer compartment 111 arranged from above. The refrigerator compartment 307 is divided from the middle of the front, and the right door 305 as seen from the front of the refrigerator is divided into upper and lower parts, and both ends can be rotated via hinges 112 so that both left and right sides can be opened as fulcrums. The three rotary doors 313a, 313b, and 313c supported by the motor are provided. When the refrigerator is viewed from the front, the ratio of the width of the left rotating door 313a to the width of the right rotating door 313b is about 4: 6, and the height of the upper right rotating door 313b and the height of the lower right rotating door 313c are The ratio is approximately 1: 2. The rotary doors 313a, 313b, and 313c are provided with a plurality of door pockets 114 as spaces for storing food and the like.

  On the other hand, the switching chamber 109a, the ice making chamber 109b, the vegetable chamber 110, and the freezing chamber 111 are all formed as a drawer chamber 108, and can be slid forward and backward via a rail (not shown). Reciprocating drawer doors 115a, 115b, 115c, and 115d are provided.

  The inner edges of the revolving doors 313a, 313b, 313c and the drawer doors 115a, 115b, 115c, 115d are in close contact with the seal surface 117 of the box body 301 to block the inside and outside of the refrigerator and A gasket 116 for absorbing an impact when the cover is closed is attached and fixed.

  Above the box body 301, a recess 320 is provided that is recessed toward the refrigerator compartment 307 across the top surface 318 and the back surface 319 of the box body 301. The refrigerator compartment 307 is provided with a plurality of storage shelves 321 for storing food and the like, and the recess 320 has an uppermost storage space 322 a partitioned by an uppermost shelf 322 and an inner box 302 in the refrigerator compartment 307, and A business trip is made in a convex manner toward the second shelf storage space 323a defined by the second shelf 323 and the uppermost shelf 322.

  The recess 320 is provided with a top cover 326 fixed with screws or the like, and includes a compressor 150, a machine room fan 190, a condenser (not shown), a dryer (not shown), a discharge pipe 140, and a suction pipe. A part of the pipe 141 is accommodated. The compressor 150 is completely projected in the projection surface 333 from the front of the rotary door 313b, more specifically, so that a part of the compressor 150 is not hung on the outer frame line 334 of the projection surface 333. Placed inside. The top of the top cover 326 is substantially flush with the top surface 318, and the top 151 of the compressor 150 is at a lower position than the top surface 318.

  According to the present embodiment, the arc 332a radius, arc 332b radius and arc 332c radius of the open / close locus of the rotary doors 313a, 313b and 313c are smaller than those of the conventional single door type. Furthermore, the right door 305 when viewed from the front is divided into upper and lower parts, and the number of revolving doors is set to three, and the items stored in the revolving doors are distributed, so that the weight per revolving door is stored. The total weight of the foods and other foods is apparently light. Therefore, the total angular momentum given to the individual rotary doors 313a, 313b, 313c can be reduced, and the impact force applied to the box body 301 side of the refrigerator can be effectively reduced.

  In addition, in the present embodiment, the compressor 150 is disposed in the projection surface 333 from the front of the rotary door 313b, more specifically, avoiding the outer frame line 334 of the projection surface 333, whereby the rotary door 313b. In addition to the projection line 334a of the projection surface 333 to which the largest angular momentum is given, the projection surface 333 on the top surface 318 side where the impact force is thought to propagate directly is separated from the projection line 334c of the top surface 318 side. The impact force is difficult to be transmitted to the compressor 150.

  Inventor's actual machine test using a 400-liter refrigerator (a weight of about several to 10 kg is put in the door pocket of the revolving door, the revolving speed of the revolving door is 6 to 12 times per minute, and the opening and closing frequency is several tens of thousands to 200,000. According to a test that evaluates the frequency of the number of times that the compressor hits the hook, compared to a refrigerator in which the compressor 150 is disposed at a position where the largest angular momentum of the rotary door 313b is given. It has been confirmed that the frequency per hook decreases by about 70%.

  From the above, it is possible to suppress the hook contact of the compressor 150 due to the impact when the rotary doors 313a, 313b, and 313c are closed, and abnormal wear due to the biting of the chipping pieces generated by the hook contact, Compression failure due to fatigue fracture of piping can be avoided. Therefore, noise reduction can be achieved and a highly reliable refrigerator can be provided.

  Further, if the compressor 150 is disposed in the projection surface 333 of the revolving door 313b of the refrigerator, the same effect can be obtained even if the height and width ratios of the doors are changed.

  In addition, by subdividing the revolving doors, especially in the hot summer, by opening only the necessary revolving doors among the subdivided revolving doors and putting food in and out, the cold air escaping out of the warehouse is remarkably reduced. In addition, the operation rate of the compressor can be suppressed, and a refrigerator with low power consumption can be provided.

(Embodiment 4)
FIG. 15 is a longitudinal sectional view of a refrigerator according to Embodiment 4 of the present invention, FIG. 16 is a plan sectional view when the refrigerator door of the refrigerator according to the embodiment is closed, and FIG. 17 is a refrigerator compartment of the refrigerator according to the embodiment. It is a plane sectional view at the time of a door closing.

  In the figure, a heat insulating box body 421 which is a box body of the refrigerator 420 is obtained by filling a foam heat insulating material 424 between an inner box 422 and an outer box 423, has a front opening 421a, and partition walls 425, 426. , 427 form a refrigerating room 428, a switching room 429, a vegetable room 430, and a freezing room 431 which are storage rooms from above.

  In addition, a compressor 450 is disposed on the rear side of the top surface of the box body 421.

  In addition, each storage room closes the front opening 421a when closed, and is connected to a heat insulation box 421 that is a box body, which is a refrigerator room door 432, a switching room door 433, a vegetable room door 434, and a freezer room door 435. Is provided.

  The refrigerator compartment door 432 is a revolving door pivotally supported by the heat insulating box 421, and is rotatably connected to the heat insulating box 421 by an upper hinge 436 and a lower hinge 437 fixed to the partition wall 425. The remaining switching room door 433, vegetable room door 434, and freezer room door 435 can be opened and closed forward and backward with the heat insulating box 421 by rail members 421b fixed to both sides of the heat insulating box 421 in each storage room. Connected.

  The lower hinge 437 below the refrigerator compartment door 432 is provided with a self-closing function part 437a and a deceleration function part 437b.

  The first position A at which the speed reduction function of the refrigerator compartment door 432 starts operating is the front opening 421a of the heat insulating box 421 and the bank on the opposite side of the rotation axis of the refrigerator compartment door 432 when the refrigerator compartment door 432 is closed. Between 432d, there is a space of about 100 mm to 150 mm.

  Similarly, the second position B where the deceleration function of the refrigerator compartment door 432 is released is the bank opening on the opposite side of the front opening 421a of the heat insulating box 421 and the rotational axis of the refrigerator compartment door 432 when the refrigerator compartment door 432 is closed. It is set to have a space of about 1 mm to 5 mm between 432d.

  About the refrigerator comprised as mentioned above, the operation | movement and an effect | action are demonstrated below.

  First, the refrigerator compartment door 432 is fully opened and manually closed, and the refrigerator compartment door 432 is about 150 mm to 250 mm between the front opening 421a and the bank portion 432d on the opposite side of the rotation axis of the refrigerator compartment door 432. When it reaches a position having a space, the refrigerator compartment door 432 starts to close itself, and further closes between the front opening 421a and the bank portion 432d on the opposite side of the rotating shaft of the refrigerator compartment door 432 to about 100 mm to 150 mm. When the refrigerator compartment door 432 arrives at the first position A having a space, the speed reducing function portion 437b is activated, and the closing speed of the refrigerator compartment door 432 starts to be reduced.

  Furthermore, as the refrigerator compartment door is closed, the closing speed of the refrigerator compartment door 432 is gradually reduced, and approximately 1 mm to 5 mm between the front opening 421a and the bank portion 432d opposite to the rotation axis of the refrigerator compartment door 432. When the second position B having the space is reached, the refrigerator door 432 is released from the deceleration function and is reliably closed.

  Further, the first position at which the deceleration function of the refrigerator compartment door 432 starts operating is the bank opening on the opposite side of the front opening 421a of the heat insulation box 421 and the rotation axis of the refrigerator compartment door 432 when the refrigerator compartment door 432 is closed. The space 430d has a space of about 100 mm to 150 mm. However, if the range in which the speed reduction function operates is wide, it takes time to close the refrigeration room door 432, and as a result, the refrigerated room 428 that has been cooled with much effort is used. Since the inside cold air escapes, the amount of power consumption increases or the stored item in the refrigerator compartment 428 deteriorates. Therefore, the range in which the deceleration function operates is limited to the heat insulating box 421 of the refrigerator door 432. It is better to be narrow in the range where the collision speed is sufficiently decelerated.

  However, when the refrigerator compartment door 432 is closed, the space between the front opening 421a of the heat insulating box 421 and the bank portion 432d on the opposite side to the rotation axis of the refrigerator compartment door 432 is narrowed, or the bank portion on the opposite side to the rotation axis. When the speed reduction function starts operation from the position where 432d enters the refrigerator compartment 428 further than the front opening 421a, the user's fingers and arms are sandwiched between the front opening 421a and the bank 432d opposite to the rotation axis. There is a risk that

  Therefore, in this embodiment, the user's fingers and arms are not caught in the space between the front opening 421a of the heat insulation box 421 and the bank portion 432d on the opposite side to the rotation axis of the refrigerator compartment door 432, The space is about 100 mm to 150 mm.

  In the present embodiment, the bank portion 432d is provided on the refrigerator compartment door 432. However, when there is no bank portion 432d, the space between the surface of the refrigerator compartment door 432 on the heat insulating box 421 side and the front opening 421a is set in each space. What is necessary is just to set it as a predetermined value range.

  The surface of the shelf 443 on the side of the heat insulation box 421 is substantially flush with the tip of the bank portion 432d, but the surface of the shelf 443 on the side of the heat insulation box 421 protrudes from the tip of the bank portion 432d toward the heat insulation box 421. In the case where the distance between the front opening 421a and the space between the front end of the shelf 432d and the surface of the shelf 443 on the heat insulating box 421 side is narrower, each predetermined value is set. The range may be used.

  When the refrigerator door 420 of the refrigerator 420 is a double door that is divided into left and right sides, the tip of the bank portion 432d opposite to the rotating shaft of the refrigerator door 432 on the open side and the heat insulating box 421 of the shelf 443 are provided. Each of the predetermined value ranges may be a space in which the distance between the heat insulation box 421 of the refrigerator compartment door 432 on the side in the closed position and the external surface on the opposite side is narrower.

  As described above, in the present embodiment, the refrigerator 420 has a speed reducing function that operates on the refrigerator compartment door 432, thereby reducing the impact force transmitted to the compressor 450 through the heat insulating box 421 when the refrigerator compartment door 420 is closed. By doing so, the hook contact of the compressor 450 can be suppressed, noise reduction can be achieved, and a highly reliable refrigerator can be provided.

(Embodiment 5)
FIG. 18 is a plan sectional view of the main part of the refrigerator in the fifth embodiment of the present invention, and FIG. 19 is a longitudinal sectional view of a compressor mounted on the refrigerator in the same embodiment.

  The refrigerator includes a machine room 510 provided at the rear of the top surface of the box body 501, a compressor 550 and a machine room fan 520 provided in the machine room 510, a high-pressure pipe 540 connected to the compressor 550, and a compressor. 550, a condenser (not shown), a decompressor (not shown), and an evaporator (not shown) are provided in this order, and a box body 501 is provided with a refrigeration cycle.

  Further, the uppermost storage chamber 507 is provided with a revolving door 513 so as to be rotatable through a hinge portion 512. The revolving door 513 is a single revolving door over almost the entire width of the box body 501 in the left-right direction. 513.

  The revolving door 513 opens and closes with the hinge portion 512 as a fulcrum, and the locus 532b of the end portion 513a opposite to the side on which the hinge portion 512 is provided has the largest opening and closing radius of the revolving door 513.

  Further, the compressor 550 is provided closer to the hinge portion 512 than the portion H corresponding to 1/2 of the full width G in the left-right direction of the box body 501.

  The compressor 550 is a reciprocating compressor that compresses refrigerant by reciprocating a piston (not shown) in the compression chamber 552 and the compression chamber 552 inside the sealed container 551. A discharge capillary 554 is provided to connect the compression element 553 provided to the high-pressure pipe 540 provided in the sealed container 551. The high-pressure pipe 540 and the discharge thin tube 554 are connected via a connection portion 555.

  As described above, the compressor 550 is disposed so that the compression chamber 552 is positioned on the side closer to the projection line on the hinge portion 512 side of the rotary door 513, and the left and right central axis I of the compressor is arranged. The end portion 553a of the compression element 553 located on the side facing the connecting portion 555 that connects the high-pressure pipe 540 and the discharge thin tube 554 is also located on the side closer to the projection line on the hinge portion 512 side of the rotary door 513. The compressor 550 is disposed in the front.

  In the refrigerator having the above-described configuration, the operation and action when the rotary door 513 is opened and closed will be described below.

  In the revolving door 513, the factor that affects the overall angular momentum is that the revolving door immediately before the collision between the revolving door 513 and the food stored in the door pocket (not shown) and the seal surface 517. The circumferential speed of 513 and the lateral width of the rotary door 513, that is, the radius 532 b of the opening / closing locus of the rotary door 513. These govern the overall impact force applied to the box body 501 of the refrigerator when the gasket 516 and the seal surface 517 collide.

  Further, from the viewpoint of the distribution of angular momentum given to the rotary door 513, the circumferential speed increases as the point moves away from the hinge 512, which is the rotation fulcrum of the rotary door 513, and the angular momentum increases. In a state where food or the like is stored in the door pocket without being biased, normally, a distribution in which the angular momentum is maximized is exhibited at the end of the revolving door 513 opposite to the hinge 512.

  When the revolving door 513 is closed, a magnetic force acts between the permanent magnet built in the gasket 516 and the seal surface 517 formed of a magnetic material, and the gasket 516 comes into close contact with the seal surface 517.

  At this time, although the air pocket built in the gasket 516 absorbs the impact force to some extent, the impact force that cannot be absorbed is transmitted to the box body 501 of the refrigerator through the seal surface 517.

  Nowadays, the main capacity of the main refrigerator capacity band is 300L or more. As a result, as the refrigerator size increases, the radius arc 532b of the opening / closing locus of the revolving door 513 increases, and in addition, the amount of storage in the door pocket increases, The total weight is inevitably increased, and it is assumed that the impact force applied to the box body 501 when the rotary door 513 is closed increases synergistically.

  However, in the present embodiment, the compressor 550 is provided closer to the hinge portion 512 than the portion H corresponding to 1/2 of the full width G in the left-right direction of the box body 501, thereby closing the rotary door 513. At the time, by being largely separated from the projection line from the front side of the end portion 513a opposite to the side where the hinge portion 512 of the revolving door 513 having the largest impact force applied to the box body 501 of the refrigerator is provided. Because of the long dimension in the width direction, even in a type of revolving door where the distance from the fulcrum to the end on the side opposite to the fulcrum is large, the compressor is more on the projection line from the front of the largest dividing line in the angular momentum. By releasing 550, the impact force transmitted to the compressor through the refrigerator box body when the revolving door 513 is closed can be reduced, and the impact of the compressor 550 on the hook can be suppressed, and the noise can be reduced. It is possible to provide a high refrigerator.

  Note that the change in the width direction of the impact force when the rotary door 513 is closed is the opposite side of the hinge portion 512 in the case of a single door as in the present embodiment, and is generally at the end on the handle side. The portion is the largest because of the large turning radius, and the portion becomes smaller as it approaches the hinge portion 512. However, for convenience of taking in and out, the handle of the door pocket of the rotating door 513 is to store a heavy object such as a PET bottle beverage. In many cases, the impact force distribution in the actual use state becomes remarkable as the impact force decreases toward the hinge part 512 side.

  For this reason, in the space in the width direction of the machine room 510, the distances a and b in the width direction between the anti-hinge side space 510a and the hinge side space 510b, which are the left and right space spaces in which the compressor 550 is disposed, will be described. By setting the distance a of the space 510a to the distance b of the hinge-side space 510b, the central axis I in the width direction of the compressor 550 (container) corresponds to at least half of the full width G in the left-right direction of the box body 501. The portion closer to the hinge portion 512 side than the portion H can be set so that the impact force when the rotary door 513 is closed does not substantially affect the compressor 550.

  Further, if a portion H corresponding to 1/2 of the full width G in the left-right direction of the box body 501 is defined as a boundary line, if the entire compressor 550 is closer to the hinge portion 512 side than the boundary line, the impact at that point The force can be further reduced and the impact on the compressor 550 can be avoided.

  In the present embodiment, the compressor 550 is provided closer to the hinge portion 512 than the portion H corresponding to 1/2 of the full width G in the left-right direction of the box body 501, but the configuration inside the machine room 510 of the refrigerator Even when the compressor 550 extends to the opposite side of the hinge portion 512 from the portion H corresponding to ½ of the full width G of the box body 501 in the left-right direction, the compression chamber 552 is left and right of the box body 501. By providing closer to the hinge portion 512 than the portion H corresponding to ½ of the total width G in the direction, the reciprocating motion is performed in at least the compressor 550, so that the compression chamber 552 serving as a vibration generation source has an impact force. When the revolving door 513 is closed, it is compressed through the box body 501 of the refrigerator by separating it from the projection line from the front side of the end 513a opposite to the side where the hinge portion 512 of the revolving door 513 having the largest is provided. On machine 550 It is possible to reduce the Waru impact force, the kettle per the compressor 550 is suppressed, Hakare is quieter, it is possible to provide a highly reliable refrigerator.

  Similarly, even when the compressor 550 extends to the opposite side of the hinge portion 512 from the portion H corresponding to 1/2 of the full width G of the box body 501 in the left-right direction, the high-pressure pipe 540 and the discharge capillary tube The end portion 553a of the compression element 553 located on the side facing the connecting portion 555 that connects the 554 is provided closer to the hinge portion 512 than the portion H corresponding to 1/2 of the full width G in the left-right direction of the box body 501. In the compressor 550, the portion that is most likely to vibrate because it is farthest from the connecting portion 555 between the compression element 552 and the hermetic container 551 is further separated, so that the hook contact of the compressor 550 is suppressed and noise reduction is achieved. Therefore, a highly reliable refrigerator can be provided.

  Further, since the contact surface L between the leg 560 and the elastic member 561 of the compressor 550 of the present embodiment is located above the lower end surface 551a of the sealed container 551, the vertical center of gravity K of the compressor 550 is provided. The distance M between the leg 560 of the compressor 550 and the contact surface L of the elastic member 561 that elastically supports the leg 560 is the distance between the vertical center of gravity K of the compressor 550 and the lower end surface 551a of the sealed container 551. N is shorter than N.

  As a result, the amplitude of vibration when an external force is applied to the compressor 550 is such that the entire compressor 550 vibrates around the center of gravity where the vicinity of the center of gravity is the smallest and the vibration increases as the distance from the center of gravity increases. By positioning the contact surface L between the leg 560 and the elastic member 561 closer to the center of gravity, when an external force is applied to the compressor 550 from the refrigerator side, vibration of the compressor 550 as a whole can be reduced. As a result, vibration transmission to the refrigerator can be reduced, and a high-quality refrigerator free from unpleasant vibrations and noise generation due to vibrations can be provided.

(Embodiment 6)
FIG. 20 is a front view of a refrigerator according to Embodiment 6 of the present invention, and FIG.

  Note that details of the compressor mounted in the present embodiment are the same as those described in the first embodiment, and thus detailed description thereof is omitted.

  The refrigerator includes a machine room 610 provided at the rear of the top surface of the box body 601, a compressor 650 provided in the machine room 610, a machine room fan (not shown), and a high-pressure pipe connected to the compressor 650 ( A box body 601 having a refrigeration cycle including a compressor 650, a condenser (not shown), a decompressor (not shown), and an evaporator (not shown) in this order. ing.

  Further, the uppermost storage chamber 607 is divided by a dividing line 630 in the width direction of the box body 601, and a revolving door 613 that rotates via a hinge portion 612 on the right side and a drawer-type on the left side. A drawer door 671 is provided.

  The lower storage compartment is divided by a dividing line 630 in the width direction of the box body 601, and a drawer-type door 622 is provided at the lowermost portion on the right side, and a drawer-type door 621 is provided at the top. A drawer-type door 623 is provided on the left side.

  When viewed from the front, the ratio of the width of the left drawer door 671 to the width of the right rotating door 613 is about 3: 7. The rotary door 613 is provided with a plurality of door pockets 614 as spaces for storing food and the like.

  The drawer door 671 is a plate having a vertically long shape, and a plurality of containers 672 for storing stored items are arranged on the inner surface thereof in the vertical direction. In this embodiment, the size of the door 671 is 900 mm in height, The width was 240 mm.

  In addition, a handle 676 is formed on the front surface of the drawer door 671, and in the present embodiment, the handle 676 is formed on the adjacent rotary door 613 side.

  Further, the compressor 650 is disposed so as to avoid a projection line from the front to the rear of the dividing line 630 that is an end portion on the side facing the hinge portion 612 in the left-right direction of the rotary door 613. The dividing line 630 is the portion having the largest opening / closing track radius of the rotary door 613, and the compressor 650 is disposed avoiding the projection line from the front of the dividing line 630.

  In addition, a heat insulating wall and a rotary door 613 that form the uppermost storage chamber 607 are located on the front side of the compressor 650.

  At this time, the impact force at the time of collision with the box body 601 when the rotary door 613 is closed and the influence on the compressor 650 are as described in the first embodiment.

  However, in the present embodiment, the uppermost storage chamber 607 provided in the box main body 601 is divided by a dividing line 630 in the width direction of the box main body 601, and the revolving door 613 rotates via the hinge portion 612. And a drawer-type drawer door 671, two doors are provided in the uppermost storage chamber 607, and the compressor 650 is disposed avoiding the projection line from the front of the dividing line 630. Therefore, the opening / closing locus of the revolving door 613 is smaller than that of a single door formed in the width direction, and two doors are used to distribute the items stored in the revolving door 613, so that each revolving door is per door. The total weight, which is the sum of the weight of the food and the stored food, is apparently lightened, the overall angular momentum applied to the rotary door 613 is reduced, and the impact force applied to the refrigerator box body 601 side is effective. Reduced To have.

  In addition, by arranging the compressor 650 so as to avoid the position where the largest angular momentum is given among the angular momentum of the rotary door 613, the impact when the rotary door 613 is closed is not easily transmitted to the compressor 650. It is said.

  From the above, the hook contact of the compressor 650 due to the impact when the rotary door 613 is closed can be suppressed, and abnormal wear caused by biting the generated chipping piece by the hook, Fatigue fracture can be avoided. Therefore, noise reduction can be achieved and a highly reliable refrigerator can be provided.

  In addition, when the heat insulating wall and the rotary door 613 are located on the front side of the compressor 650, noise from the compressor 650 is prevented from being transmitted to the front side, and if the compressor 650 encounters a hook contact However, it is possible to reduce the permeation of the hook sound to the front side of the refrigerator.

  In this embodiment, the compressor 650 is disposed so as to avoid the projection line of the dividing line 630 that is the end portion on the side facing the hinge portion 612 in the left-right direction of the rotary door 613. When adopting a multi-series refrigerator having different sizes, even if a part of the compressor 650 is applied to the projection line of the dividing line 630, at least with respect to the central axis in the left-right direction of the compressor 650. By arranging the end of the compression element on the side opposite to the side on which the discharge thin tube is arranged, avoiding the projection line from the front of the dividing line 630 that divides the rotary door 613 left and right, the corner of the rotary door 613 Of the momentum, the vibration from the front of the largest dividing line 630 is at least greatly away from the connecting part between the mechanical part composed of the compression element and the electric element in the compressor 650 and the sealed container. By releasing the easy part, the kettle per the compressor is suppressed, Hakare is quieter, it is possible to provide a highly reliable refrigerator.

  In this embodiment, the compressor 650 is disposed so as to avoid the projection line of the dividing line 630 that is the end portion on the side facing the hinge portion 612 in the left-right direction of the rotary door 613. When adopting a multi-series refrigerator having different sizes, even if a part of the compressor 650 hits the projection line of the dividing line 630, at least reciprocating motion is performed in the compressor 650. For this reason, the impact force transmitted to the compression chamber through the box body 601 of the refrigerator when the rotary door 613 is closed by separating the compression chamber that is a source of vibration is suppressed, and the contact of the compressor 615 is suppressed. And a highly reliable refrigerator can be provided.

  In the present embodiment, the compressor 650 or the compression element provided in the compressor 650 or the compression on the side opposite to the side where the discharge thin tube is disposed with respect to the central axis in the left-right direction of the compressor 650 is compressed. The end of the element and the dividing line 630 that is the end facing the hinge 612 in the left-right direction of the revolving door 613 are arranged so as to avoid the front-to-rear projection line. It is more preferable that these are provided in the outer frame line 613a of the door that collides with the refrigerator main body when the rotary door 613 is closed in the storage chamber, and thus the uppermost storage chamber 607 is provided on the front side of the compressor 650. Since the heat insulating wall 607a to be formed and the rotary door 613 are positioned, even if a hook hit occurs in the compressor 650, the noise is transmitted to the front side of the refrigerator. Reduced, it is possible to reduce noise caused by contact hook.

  As described above, since the refrigerator according to the present invention can achieve noise reduction and has high reliability, it can be applied to a refrigerator for home or business use.

Cross-sectional view of the refrigerator according to Embodiment 1 of the present invention Front view of the refrigerator in the same embodiment Schematic sectional view of the opening / closing locus of the revolving door as seen from above the refrigerator in the same embodiment The longitudinal cross-sectional view of the compressor seen from the refrigerator back in the same embodiment Plan sectional drawing of the compressor seen from the refrigerator top in the same embodiment Characteristic diagram showing the behavior of the compressor when the revolving door is closed in the same embodiment Cross-sectional view of a refrigerator according to Embodiment 2 of the present invention Front view of the refrigerator in the same embodiment Schematic sectional view of the opening / closing locus of the revolving door as seen from above the refrigerator in the same embodiment Schematic sectional view of the opening / closing locus of the revolving door as seen from the side of the refrigerator in the same embodiment Cross-sectional view of a refrigerator according to Embodiment 3 of the present invention Front view of the refrigerator in the same embodiment Schematic sectional view of the opening / closing locus of the revolving door as seen from above the refrigerator in the same embodiment Schematic sectional view of the opening / closing locus of the revolving door as seen from the side of the refrigerator in the same embodiment Vertical section of the refrigerator in Embodiment 4 of the present invention Plan sectional drawing when the refrigerator compartment door of the refrigerator in the embodiment closes Plan sectional drawing when the refrigerator compartment door of the refrigerator in the embodiment closes Plan sectional drawing of the refrigerator principal part in Embodiment 5 of this invention. Vertical sectional view of the compressor mounted on the refrigerator in the same embodiment Front view of the refrigerator in the sixth embodiment of the present invention Main part sectional side view of the refrigerator in the same embodiment Cross-sectional view of a conventional refrigerator Vertical section of a conventional refrigerator compressor

Explanation of symbols

101, 201, 301, 401, 501, 601 Box body 106, 206, 306 Storage chamber 108 Drawer chamber 113a, 113b, 213a, 213b, 313a, 313b, 313c, 443, 513, 613 Revolving door 118, 218, 318 Top Surface 119, 219, 319 Rear surface 120, 220, 320 Recessed portion 122a, 222a, 322a Uppermost storage space 130, 630 Dividing line 131 Projection line 150, 450, 550, 650 Compressor 150a, I Central axis in the left-right direction of the compressor 152 Sealed container 153 Refrigerant 155 Leg 158 Electric element 159 Block 160 Stator 162 Rotor 163 Compression element 165 Piston 171 Discharge capillary 175 Bore hole 176 Compression chamber 233,333 Projection surface 420 Refrigerator 421 Heat insulation box (box body)
428 Refrigerated room (storage room)
432 Refrigerator door (revolving door)
437b Deceleration function part 510 Machine room (concave part)
510a Anti-hinge side space (anti-fulcrum side space) of machine room
510b Machine room hinge side space (fulcrum side space)
540 High-pressure piping 551 Sealed container 552 Compression chamber 553 Compression element 554 Discharge capillary 555 Connection H H 1/2 of the full width of the box body in the left-right direction

Claims (16)

  A storage room with a revolving door that opens and closes on the front has a box body arranged at the top, and a recess recessed on the top storage space side in the storage room across the top and back of the box body. A compressor in which an electric element composed of a stator and a rotor and a compression element driven by the electric element is housed in an airtight container is installed in the recess, and an opening and closing radius of the rotary door The refrigerator which has arrange | positioned the said compressor in places other than on the projection line from the front of the largest part of.   A storage room with a revolving door that opens and closes on the front has a box body arranged at the top, and a recess recessed on the top storage space side in the storage room across the top and back of the box body. A compressor in which an electric element composed of a stator and a rotor and a compression element driven by the electric element is housed in a sealed container is installed in the recess, and the compression element includes a compression chamber and the compression chamber The reciprocating type is provided with a piston that reciprocates in a compression chamber, and the compressor is disposed so that the compression chamber is located at a position other than the projection line from the front of the portion having the largest opening / closing track radius of the rotary door. Refrigerator.   A storage room with a revolving door that opens and closes on the front has a box body arranged at the top, and a recess recessed on the top storage space side in the storage room across the top and back of the box body. An electric element formed of a stator and a rotor in a sealed container, a compression element driven by the electric element, and the compression element and the high-pressure pipe provided in the sealed container are elastically connected via a connecting portion. A compressor accommodating a discharge capillary to be connected to the compressor is installed in the recess, and compression on the side opposite to the side where the discharge capillary is disposed with respect to the central axis in the left-right direction of the compressor The refrigerator which has arrange | positioned the said compressor so that the edge part of an element may be located in a place other than the projection line from the front of the largest opening / closing track | orbit radius of the said rotary door.   A storage room with a revolving door that opens and closes on the front has a box body arranged at the top, and a recess recessed on the top storage space side in the storage room across the top and back of the box body. A compressor that is formed and accommodates an electric element composed of a stator and a rotor and a compression element driven by the electric element in a hermetic container is installed in the recess, and is provided in the uppermost storage chamber. The width dimension of the revolving door provided in the left-right direction is smaller than the full width dimension of the box body in the left-right direction, and a drawer door is provided adjacent to the revolving door. The refrigerator of Claim 1 which has arrange | positioned the said compressor avoiding on the projection line from the front of the dividing line divided into 2 parts.   A storage room with a revolving door that opens and closes on the front has a box body arranged at the top, and a recess recessed on the top storage space side in the storage room across the top and back of the box body. A compressor in which an electric element composed of a stator and a rotor and a compression element driven by the electric element is housed in a sealed container is installed in the recess, and the compression element includes a compression chamber and the compression chamber The reciprocating type is provided with a piston that reciprocates in a compression chamber, and the width dimension in the left-right direction of the rotary door provided in the uppermost storage chamber is smaller than the full width dimension in the left-right direction of the box body. And the drawer door is provided adjacent to the said revolving door, Comprising: The refrigerator of Claim 2 which has arrange | positioned the said compression chamber avoiding on the projection line from the front of the dividing line which divides the said revolving door into right and left. .   A storage chamber having a revolving door that opens and closes on the front surface has a box body arranged at the uppermost stage, and has a recess recessed on the uppermost storage space side in the storage chamber across the top and rear surfaces of the box body. An electric element formed of a stator and a rotor in a sealed container, a compression element driven by the electric element, and the compression element and the high-pressure pipe provided in the sealed container are elastically connected via a connecting portion. A compressor accommodating the discharge narrow tube to be connected to the recess is installed in the recess, and the width dimension of the revolving door provided in the uppermost storage chamber is the full width of the box body in the left-right direction. A side that is smaller than the size and that is provided with a drawer door adjacent to the revolving door, and that faces the side where the discharge capillary tube is disposed with respect to the central axis in the left-right direction of the compressor The end of the compression element on the left of the revolving door The refrigerator according to claim 3 which is arranged so as to avoid the projection line from the front of the dividing line is divided into.   The refrigerator of Claim 1 which has arrange | positioned the said compressor in the projection surface from the front of a revolving door.   The refrigerator according to claim 7, wherein the rotary door on the side where the compressor is arranged is further divided into upper and lower parts, and the compressor is arranged in a projection plane from the front of the rotary door divided into upper and lower parts.   The refrigerator according to any one of claims 1 to 8, wherein a drawer chamber is disposed at a lower portion of the uppermost storage chamber.   The compression element is a reciprocating type including a compression chamber and a piston that reciprocates in the compression chamber, and the reciprocating direction of the piston is positioned in a direction other than the collision direction that collides with the box body when the rotary door is closed. The refrigerator according to any one of claims 1 to 9, wherein the compressor is mounted as described above.   The compression element is a reciprocating type including a compression chamber and a piston that reciprocates in the compression chamber, and the reciprocating direction of the piston is substantially perpendicular to the collision direction that collides with the box body when the rotary door is closed. The refrigerator as described in any one of Claims 1-10 which mounted the compressor so that it might be located in the direction which becomes.   The discharge thin tube that elastically connects the compression element and the high-pressure pipe of the hermetic container has a portion formed in a direction substantially parallel to the collision direction that collides with the box body when the door is closed. The refrigerator according to any one of claims 1 to 11.   A mechanical part composed of an electric element and a compression element of the compressor is elastically supported in the sealed container via a support part, and the compressor is recessed through a plurality of legs fixed to the lower part of the sealed container. When the revolving door is closed, the pitch between the legs adjacent to each other in the direction substantially parallel to the collision direction that collides with the box body closes the revolving door of the support portion. It is formed longer than the pitch between the said support parts adjacent to the direction substantially parallel to the collision direction which collides with a box main body at the time. Refrigerator.   A mechanical part composed of an electric element and a compression element of a compressor is elastically supported in a sealed container via a support part, and the compressor is provided on a plurality of legs fixed to a lower part of the sealed container. It is elastically installed in the recess through an elastic member, and the distance between the vertical center of gravity of the compressor and the contact surface between the leg of the compressor and the elastic member is determined by the compressor. The refrigerator as described in any one of Claims 1-13 made shorter than the distance of the gravity center of the up-down direction of this, and the lower end surface of the said airtight container.   A mechanical part composed of an electric element and a compression element of a compressor is elastically supported in a sealed container via a support part, and the compressor is provided on a plurality of legs fixed to a lower part of the sealed container. The elastic member is disposed in the recess through an elastic member, and a contact surface between the leg of the compressor and the elastic member is located above a lower end surface of the sealed container. The refrigerator according to any one of claims 1 to 14.   A storage room having a revolving door that opens and closes on the front surface has a box body arranged at the top, and a deceleration function part that decelerates a closing speed of the door when the door is closed. The refrigerator according to any one of 15.

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