The present invention relates to a laundry dryer, and more particularly, to a laundry dryer with an altered passage structure for allowing air that has become hot and moist inside a drying drum to condense as it is exhausted to the outside through the passage, and also for allowing an unrestricted switching of an exhaust port according to the installed location of the dryer.
A drum dryer is a home appliance that dries laundry by circulating hot, dry air within a drying drum to dry laundry inserted therein.
Drum dryers are divided into condenser dryers that circulate air between the drying drum and a heater to dry laundry inside the drum, and vented dryers that direct air heated by a heater into the drying drum to dry laundry, after which the air is exhausted from the drying drum to the outside.
In further detail, in a vented dryer, air that has been heated while passing through a heater flows into the drum, and then leaves the drum by passing through a lint filter installed at the front of the drum, removing it of lint. The air that passes through the lint filter then flows through an exhaust assembly formed at the bottom of the dryer, to be exhausted to the outside.
However, in a vented dryer according to the related art, the exhaust assembly is usually a cylindrical tube formed in a straight line from the front to the rear of the dryer. Because the exhaust tube is short, the water vapor does not have sufficient time to condense while exiting the dryer through the exhaust passage to the outside. Thus, the water vapor is exhausted in the same state to the outside.
Also, only one exhaust port is formed at the rear of the dryer, restricting the installation location and position of the dryer.
To solve the above problem, the present invention provides a laundry dryer with an improved exhaust passage that allows hot and moist air sufficient time to condense during its process of being expelled.
Another object of the present invention is to provide a laundry dryer configured to allow a user to freely select the location of an exhaust port, so that it does not limit the installed location or position of the dryer.
According to an aspect of the present invention, there is provided a laundry dryer including: a drying drum for holding laundry; a drying duct for guiding indoor air to be suctioned into the drying drum; a heater for heating the air suctioned into the drying drum; an upper base including a drum connecting duct for guiding air passing from the drying drum in a downward direction; a lower base having the upper base mounted thereabove, and forming an air passage for exhausting the air guided downward by the drum connecting duct to an indoor space; and a blower mounted on one side of the lower base, for suctioning air inside the drying drum.
According to another aspect of the present invention, there is provided a laundry dryer including: a drying drum; an upper base including a drum connecting duct for guiding air passing from the drying drum in a downward direction; a lower base including an outside air intake port formed at a rear thereof, a main passage and a sub passage formed thereabove, a blower compartment for mounting a blower, and a drum air descending passage formed directly below the drum connecting duct; and a drying duct provided at an outside of the outside air intake port for guiding suctioned air into the drying drum.
According to a further aspect of the present invention, there is provided a laundry dryer including: a drying drum; a drying duct for guiding indoor air to be suctioned through a rear of the drying drum; a base including a lower base having a passage for water vapor flowing from the drying drum to flow through and a fastening hook formed along a perimeter of the passage, and an upper base for covering the passage and having an insert hole formed at a predetermined interval for inserting the fastening hook into; and a blower installed at a side of the lower base for suctioning the water vapor.
An advantage of the laundry dryer according to the present invention is that the hot, moist air from the drying drum is afforded sufficient time to condense during its exhausting to the outside by the exhaust passage of the dryer.
Another advantage of the laundry dryer according to the present invention is that a plurality of exhaust ports for exhausting the air from the drying drum to the outside are provided, so that a user may select which exhaust port to use, based on the installed position of the dryer. Thus, installation restrictions for the dryer are reduced.
Reference will now be made in detail to the preferred embodiments of the present invention, examples of which are illustrated in the accompanying drawings. Wherever possible, the same reference numbers will be used throughout the drawings to refer to the same or like parts.
Referring to
In more detail, the cabinet 11 includes a front cover 111 for supporting the front portion of the drying drum 14, a side cover 112 installed on the side of the drying drum 14, and a back cover 114 supporting the rear of the drying drum 14.
The dryer 10 also includes a door 12 pivotally installed at the front of the front cover 111 to open and close the opening at the front of the drying drum 14 for inserting and extracting laundry, a control panel 13 installed above the door 12 and having buttons for inputting dryer settings and operation, a drying duct 17 installed at the rear of the back cover 114 to guide outside air into the drying drum, and a heater 16 installed inside the drying duct 17 to heat the outside air drawn in.
The operation of the above-described dryer 10 will now be explained.
First, a user opens the door 12 and inserts laundry into the drying drum 14. Then, using the setting portion on the control panel 13, the user inputs dryer settings. When the start button is pressed, the motor 15 and the heater 16 installed inside the drying duct 17 operate. A suctioning blower installed below the base 20 rotates to suction outside air into the dryer 10.
In more detail, outside air enters the drying duct 17 through an outside air intake port (described later) formed at the bottom of the back cover 114, and is heated while passing through the drying duct 17. The heated air enters the drying drum 14 through a rear wall of the drying drum 14. The heated air that enters the drying drum 14 absorbs moisture imbued in laundry and becomes water vapor. The air that becomes hot and moist leaves the drying drum 14 by passing through a lint filter (not shown) formed on the front cover 111, shedding impurities such as lint in the process.
The air that passes through the lint filter flows along the exhaust passage (described below) installed on the base 20, and is ultimately exhausted out from the dryer 10. Here, the base 20 forms a passage within for air to be exhausted, and exhaust ports are formed on the sides and rear of the base 20. One of the exhaust ports may be open while the remaining ports may be sealed. The air passage formed within the base 20 will be described in further detail below with reference to the diagrams.
Referring to
In detail, the motor 15 is mounted on top of the lower base 21, and the passage for exhausting air is formed within the upper part of the lower base 21. The upper base 22 covers the air passage, so that the exhausting air is not dispelled but directed to flow in a predetermined direction.
In further detail, the lower base 21 and the upper base 22 are respectively plastic injection molded and coupled together in one piece by means of fasteners. However, the manufacturing method of the base 20 is not limited thereto, and may include being formed in a single piece. A drum connecting passage 203 is formed at the front upper portion of the base 20, and a side exhaust port 201 is formed at the side and a rear exhaust port 202 is formed at the rear of the base 20. The motor 15 is mounted to one side on top of the base 20, and a blower is connected to the rotating motor shaft to suction air from inside the drum. The blower is protected by a blower cover 23. Here, the blower is installed at the front of the motor 15, as shown in
In the above-described structure, the hot, moist air discharged from the front of the drying drum 14 enters the drum connecting passage 203 and is exhausted back to the outside through the side exhaust port 201 and/or the rear exhaust port 202. Below, a detailed description of the air passages formed within the base 20 will be given, with reference to the diagrams.
Referring to
In detail, an air passage, through which air is exhausted from the drying drum 14, is formed in the lower base 21. A complete air passage is formed by covering the bottom half of the air passage with the upper base 22.
In more detail, a drum air descending passage 205, for the air passing from the drying drum 14 to descend, is formed at the front of the lower base 21. A blower entrance 206 is formed on one side of the drum air descending passage 205 for the descending air to be suctioned toward the blower. A blower compartment 211 is formed for mounting the blower at the blower entrance 206. An expanded passage portion 212 that bends at a predetermined angle and expands in diameter is connected to an end of the blower compartment 211. A main passage 213 that extends to the rear end of the lower base 21 is connected at the end of the expanded passage portion 212.
A sub passage 214 is formed to intersect with the main passage 213, forming the side exhaust ports 201 at either side of the lower base 21. A condensation pan 214a is respectively formed of a predetermined depth into the floors at the rear exhaust port 202 and side exhaust ports 201, to collect condensing moisture from the exhausting air. A passage intersection 215 of the main passage 213 and the sub passage 214 is biased toward the rear of the lower base 21 from its center. That is, the sub passage 214 is closer to the rear of the lower base 21 than its front.
At least one upper base guiding protrusion 217 is formed on the top surface of the lower base 21, in order to guide the mounting position of the upper base 22 over the lower base 21. A fastening hook 219 is formed to protrude a predetermined height from along the perimeters of the main and sub passages 213 and 214, in order to tightly couple the upper base 22 to the lower base 21. Also, a plurality of fastening holes 216 are formed in the upper surface of the lower base 21, so that a fastening member (for fastening the upper base 22) can insert through the fastening hole 216. Specifically, the fastening holes 216 are formed symmetrically at the edges on either sides of the sub and main passages 214 and 213.
An outside air intake port 204 is formed at the rear of the lower base 21, to allow outside air to pass through the drying duct 17 into the drying drum. A suctioning blower is installed outside of the outside air intake port 204 in order to suction outside air. Here, the outside air suctioned through the outside air intake port 204 is air within the cabinet 11 of the dryer 10. A lint entry preventing slot 207 recessed at a pre-determined depth is formed at the front of the outside air intake port 204 for trapping lint and other impurities contained in the outside air suctioned through the outside air intake port 204.
In more detail, a small amount of the water vapor that may leak through small gaps between the coupling portions of the upper base 22 and the lower base 21 may mix with the outside air suctioned through the outside air intake port 204. Also, lint particles may be contained in the air from the drying drum 14 that passes through the passages. Despite this, the impurities contained within the outside air suctioned through the outside air intake port 204 will be caught in the lint entry preventing slot 207, thereby reducing the amount of impurities that enters the drying duct 17.
A lint entry preventing ledge 218 is formed to protrude a predetermined height from around the perimeter of the lint entry preventing slot 207. That is, by forming the lint entry preventing ledge 218, impurities that leak through gaps between the coupling regions of the upper base 22 and the lower base 21 are blocked in a first stage. The air filtered in a first stage by the lint entry preventing ledge 218 is filtered once more in the lint entry preventing slot 207.
A motor mount 215a for mounting the motor 15 is formed in the space between the blower compartment 211 and the sub passage 214, where a motor supporting insert slot 215b is formed for supporting a motor supporter (not shown).
In the above structure, the water vapor that descends through the drum air descending passage 205 flows through the blower entrance 206 into the blower compartment 211. The air that enters the blower compartment 211 flows through the expanded passage portion 212 to the main passage 213. The air that flows to the main passage 213 branches at the passage intersection 215 and flows through at least one of the side exhaust ports 201 and/or the rear exhaust port 202 to the outside.
Here, a portion of the two side exhaust ports 201 and the rear exhaust port 202 may be sealed with caps. For example, if the dryer 10 is installed in a corner, one of the side exhaust ports 201 and the rear exhaust port 202 may be sealed with caps, with only the remaining side exhaust port 201 opened. That is to say that caps can be used to selectively seal the exhaust ports, as mandated by the installed location of the dryer 10.
The air that flows toward the sealed exhaust ports during the circulation through the passages condenses, and the condensed water accumulates in the condensation pans 214a. Also, even when all the exhaust ports 201 and 202 are open, air that flows through the passages condenses, whereupon the condensed water accumulates in the condensation pans 214a.
Referring to
Specifically, the upper base 22 is formed in a shape corresponding to that of the lower base 21 in terms of the passages, in order to seal the upper portion of the passages. A drum connecting passage 203 is formed at the front of the upper base 22, to provide an entrance for water vapor air exiting the drying drum 14 toward the passages.
In more detail, the drum connecting passage 203 extends a predetermined distance upward from the top of the upper base 22 to form the interior of a drum connecting duct 221. A blower connecting portion 221a is formed to extend from the side of the drum connecting duct 221, so that air passes through the drum connecting passage 203 and flows into the blower entrance 206 formed in the lower base 21.
A main passage cover 222 and a sub passage cover 223 are formed on the upper base 22 to cover the expanded passage portion 212, the main passage 213, and the sub passage 214 formed in the lower base 21. The main passage cover 222 and the sub passage cover 223 also intersect with each other. A humidity sensor mount 226 is formed in a portion of the main passage cover 222 for installing a humidity sensor therein, in order to detect the level of humidity of air flowing through the main passage 213.
A fringe 228 is formed to protrude a predetermined distance from the lower portions of the main passage cover 222 and the sub passage cover 223, and hook insert holes 225 in the fringe 228. Also, fastening hooks 219 are formed a predetermined distance apart from one another on the upper perimeters of the main passage 213 and the sub passage 214 of the lower base 21. The fastening hooks 219 insert into the hook insert holes 225.
The fastening tab 224 is formed to protrude further from the fringe 228 to fasten the upper base 22 to the lower base 21 more firmly. Specifically, a fastening hole 224a is formed in each fastening tab 224, so that a fastening member inserted through the fastening hole 224a inserts into the fastening hole 216 formed in the lower base 21. That is, the fastening member tightens the coupling of the upper base 22 to the lower base 21, so that no gaps are formed between the base upper and lower portions 22 and 21. In this way, the size of gaps formed between the base upper and lower portions 22 and 21 may be minimized, preventing leakage of air flowing within the passages and the possibility of it re-entering through the outside air intake port 204. In other words, the air flowing through the inside of the passages is prevented from leaking into the interior space of the cabinet 11 holding the drying drum 14 and being suctioned into the outside air intake port 204.
In the above structure, the water vapor that exits the drying drum 14 passes through the drum connecting passage 203 and descends to the drum air descending passage 205. The air that descends to the drum air descending passage 205 flows to the blower entrance 206. The air that descends to the drum connecting passage 203 flows along the blower connecting portion 221a and into the blower entrance 206. The air that enters the blower entrance 206 moves through the expanded passage portion 212, the main passage 213, and the sub passages 214. The air that flows through the main and sub passages 213 and 214 condenses and is exhausted to the outside through the rear exhaust port 202 and/or the side exhaust port(s) 201.
Referring to
The air that moves to the blower entrance 206 is redirected by the blower installed in the blower compartment 211. The air that is redirected by the blower flows to the expanded passage portion 212. The flow direction of the air is redirected again at the expanded passage portion 212 to the main passage 213, and the air flows to the rear of the base 20. A portion of the air flowing through the main passage 213 branches off at the passage intersection 215 (where the main and sub passages 213 and 214 intersect) to the sub passages 214. The air flowing through the main and sub passages 213 and 214 flow through the rear exhaust port 202 and/or side exhaust port(s) 201 to be exhausted back to the outside. Here, the water vapor that exits the drying drum 14 cools (and a portion of the moisture in the air condenses) during the time it takes to flow from the drum connecting passage 203 to the exhaust ports 201 and 202. The condensed moisture accumulates in the condensation pans 214a recessed in the floors of the main and sub passages 213 and 214.
The outside air that flows into the rear of drying drum 14, that is, outside air with the same temperature and humidity of inside air, re-enters the drying drum 14 through the drying duct 17 through the outside air intake port 204 formed at the rear of the base 20.
Referring to
In further detail, the lower base 21 is coupled to the upper base 22 by inserting the fastening hooks 219, formed a predetermined distance apart around the upper perimeters of the main passage 213 and the sub passage 214, into the hook insert holes 225 (in
A leak preventing step 219a is formed in at least one stepped structure around the perimeters of the main and sub passages 213 and 214, as shown in
In other words, in order for the water vapor flowing through the main and sub passages 213 and 214 to leak through the gaps formed between the base upper and lower portions 22 and 21, it must first pass the stepped portion and then bypass the fastening hooks 219. Therefore, the amount of leaking water vapor is insubstantial.
Referring to
In further detail, instead of the stepped portion formed on the base lower and upper portions 21 and 22 illustrated in
More specifically, a sealing gasket 229 is formed to protrude a predetermined height around the upper perimeters of the main and sub passages 213 and 214 of the lower base 21. The fringe 228, that extends horizontally outward from around the perimeters of the main and sub passage covers 222 and 223 of the upper base 22, presses against the sealing gasket.
Under these circumstances, after the upper base 22 is mounted on the lower base 21, the fastening hooks 219 couple the base upper and lower portions 22 and 21. A coupling member inserts through the fastening tab 224 formed to extend from the perimeters of the main and sub passage covers 222 and 223 of the upper base 22, and the fastening hole 216 formed on the upper surface of the lower base 21. Then, the fastening member is tightened to press the base upper and lower portions 22 and 21 more tightly together. Thus, the fringe 228 presses against the sealing gasket 229 to minimize the possibility of leaking water vapor. Here, the sealing gasket 229 may be formed on the lower surface of the fringe 228 instead of on the upper surface of the lower base 21. In other words, the sealing gasket 229 may selectively be formed on either a surface of the base lower or upper portion 21 or 22.
The fastening tab 224 is formed only at the short end of the main and sub passages 213 and 214 (namely, the rear of the base 20). This is because when the rear sections of the base upper and lower portions 22 and 21 are tightly coupled by means of the fastening tab 224, the fastening hooks 219 formed on the front ends of the lower base 21 automatically insert into the hook insert holes 225 formed at the front of the upper base 22. In other words, the fastening hooks 219 automatically insert into the hook insert holes 225 formed near the drum connecting duct 221. However, the location of the fastening tab 224 is not limited to this embodiment, and may also be formed near the drum connecting duct 221.
While the present invention has been described and illustrated herein with reference to the preferred embodiments thereof, it will be apparent to those skilled in the art that various modifications and variations can be made therein without departing from the spirit and scope of the invention. Thus, it is intended that the present invention covers the modifications and variations of this invention that come within the scope of the appended claims and their equivalents.
The passage structure for a dryer according to the present invention not only allows hot, moist air from the drying drum to condense during the course of being expelled to the outside, but also allows the location of an exhaust port to be freely selected in order to reduce installing location restrictions, for a high industrial applicability.
Number | Date | Country | Kind |
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10-2005-0026924 | Mar 2005 | KR | national |
10-2005-0026926 | Mar 2005 | KR | national |
Filing Document | Filing Date | Country | Kind | 371c Date |
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PCT/KR2006/001084 | 3/24/2006 | WO | 00 | 10/27/2008 |
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WO2006/104327 | 10/5/2006 | WO | A |
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