KR102580183B1 - Line lighting using LED Strip Bar - Google Patents

Abstract

Line lighting using an LED strip bar according to one aspect of the present invention outputs an LED light source, withstands vibration and shock due to material characteristics in the event of an earthquake or vibration, and prevents casualties due to load and material characteristics even if it falls off, and prevents damage to people during rainy seasons. An LED strip bar is waterproof to withstand moisture and water ingress due to the material characteristics in the event of an occurrence, and is wound for easy movement. The LED strip bar is inserted and fixed inside, and an uneven surface is formed on one side, so that during ceiling construction, it can be buried, fixed, or An extruded housing fixed in any one of the pendant forms may be provided.

Description

Line lighting using LED Strip Bar}

The present invention relates to line lighting, and more specifically to line lighting using an LED strip bar.

Typically, long-shaped lighting is called line lighting. In the case of line lighting, the length of the housing is usually 2.4M.

In the case of this type of line lighting, the lamp is assembled in a housing and finished with a diffuser. The length of the lamp is 1.2M to 2.4M. If the lamp is longer than 2.4M, there is a very high probability that it will be damaged during transportation, and it is impossible to move it in the building elevator. There is a downside to this.

On the other hand, in the case of LED line lighting lamps, the maximum length is 1.2M or 2.4M, and the LED module is built into the line lighting extruded housing, so the extruded housing and the lamp are used as one piece.

However, because it is a constant voltage input method, the current flowing in the LED Module, which is the first input terminal of DC power, and the current flowing in the LED Module at the end, have a portion where the DC voltage drops by the same amount as the PCB pattern voltage, resulting in a large difference in the brightness of the light source at the first and last ends.

In addition, since it is a method of controlling the current flowing through a resistor in the LED, power consumption is large and losses occur through the resistance. This product has an LED module built into the extruded housing, so there are limitations when moving the product.

In addition to the electrical characteristics, the disadvantages of conventional line lighting include the risk of damage during transportation due to length restrictions in the process of moving to the site, and the difficulty of moving to upper floors due to the impossibility of using an elevator in the building, so short-length line lighting is used on site. The disadvantage is that multiple installations must be installed one after another.

In particular, when installing line lighting with a long line, it must be installed as close to the input terminal of each LED module as possible due to the voltage drop of the LED converter output wire supplied to the LED module. The LED converter location must be adjusted as the capacity of the LED converter varies depending on the LED power consumption. There is a risk that they may be installed differently, making installation difficult and causing confusion in A/S if a problem occurs.

(Registered Patent Publication) No. 10-1281349 (Announcement Date: July 2, 2013)

The purpose of the present invention relates to line lighting using an LED strip bar that can overcome the risk of damage during transportation due to limitations on the length of the line lighting during the moving process.

In addition, it relates to line lighting using LED strip bars that allow for convenient and easy installation and after-sales service by consumers.

In addition, it relates to line lighting using LED strip bars, which are strong against shock and can prevent casualties in the event of earthquakes or vibrations.

In addition, it relates to line lighting using LED strip bars that are installed in the basement of a building and are not affected by high humidity and flood damage that occurs during the rainy season.

In addition, it relates to line lighting using LED strip bars that can be inserted into various curved shapes and polygonal borders of line lighting for interior design.

Additionally, it is about line lighting that has high luminous efficiency and saves energy.

Line lighting using an LED strip bar according to one aspect of the present invention to achieve the above-described object is capable of withstanding vibration and shock due to material characteristics when an earthquake or vibration occurs while outputting an LED light source, and can bear the load even if it falls off. and an LED strip bar that prevents human damage due to the material characteristics, is waterproof to withstand moisture and flooding due to the material characteristics during the rainy season, and is wound for easy movement. The LED strip bar is inserted and fixed inside, and is fixed on one side. An extruded housing can be provided with irregularities formed on the ceiling and fixed in any one of the form of a buried, housed, or pendant type during ceiling construction.

The LED strip bar consists of an LED that outputs a light source, a light emitting part that evenly emits the light source of the LED, and a silicone tube fixed to the extrusion housing made of a silicone material that surrounds the LED and can be wound for easy movement. It can be provided.

The silicone tube has an extrusion surface that is double extruded with the light emitting part, a sliding surface in which irregularities are formed on one side of the silicone tube and faces the extrusion housing, and grooves are formed on both sides of the silicone tube to form the extrusion housing. It can be provided with a bar groove that the user can easily attach and detach while the protrusions are inserted and fixed.

The extruded housing includes a housing that dissipates heat from the LED strip bar, a coupling surface formed on both ends of the housing to which a diffuser is coupled, a bar fixing groove formed inside the housing into which the LED strip bar is inserted, and A bar holder can be provided that is formed inside the housing and fixes the LED strip bar while the bar groove is inserted, so that the user can easily attach and detach it.

The bar fixture includes a first fixture protruding from the extrusion housing, a second fixture bent at one end of the first fixture and inserted into the bar groove, and the LED bent at one end of the second fixture and extending diagonally. A third fixture may be provided to easily guide the insertion of the strip bar.

The extruded housing has an installation hole drilled in the housing and installed in a built-in or housed type during construction, an installation unevenness formed in an uneven shape on one surface of the housing, and an installation hole inserted into the installation unevenness and installed in a pendant type during ceiling construction. Preferably, an installation clip may be provided to hang and secure the extruded housing.

The installation irregularities include a first protrusion protruding in one direction, a first groove forming a space in the lower part of the first protrusion, a second groove forming a space while facing the first groove, and the second groove. It may be provided with a second protrusion that protrudes from the top and secures the installation clip so that it does not fall off.

The installation clip includes a first clip that is inserted into the first groove and part of the clip is caught, a second clip that is inserted into the second groove and part of the clip is caught so that it does not fall out of the installation unevenness, and the first clip and the second clip. It may be provided with a clip groove formed in between and partially cut to facilitate insertion into the installation irregularities.

The LED strip bar may be inserted into the bar holder even if the extruded housing has a curved shape, an edge shape, or a polygonal shape due to the material characteristics of the silicon tube.

The LED strip bar may be equipped with an LED converter that continuously connects a plurality of the LED strip bars during ceiling construction.

In addition, the line lighting using an LED strip bar according to one aspect of the present invention to achieve the purpose according to the other aspects as described above can withstand vibration and shock due to the material characteristics and fall off when an earthquake or vibration occurs while the LED light source is output. Even if the load and material properties prevent damage to people, it is waterproof to withstand moisture and flooding due to the material properties during the rainy season, and is equipped with an LED strip bar that is wound for easy movement, and the LED strip bar inside. An extruded housing with irregularities formed on the ceiling and fixed in any one of the form of a recess, attachment, or pendant during ceiling construction, and a separate fixation that is fixed to the inside of the extruded housing and radiates heat while fixing on both sides by inserting the LED strip bar. The means are available.

The LED strip bar consists of an LED that outputs a light source, a light emitting part that evenly emits the light source of the LED, and a silicone tube fixed to the extrusion housing made of a silicone material that surrounds the LED and can be wound for easy movement. It can be provided.

The silicone tube has an extrusion surface that is double extruded with the light emitting part, a sliding surface in which irregularities are formed on one side of the silicone tube and faces the extrusion housing, and grooves are formed on both sides of the silicone tube to form the extrusion housing. It can be provided with a bar groove that the user can easily attach and detach while the protrusions are inserted and fixed.

The detachable fixing means includes a fixing body, a first detachable fixing member extending from both sides of the fixing body, and a device that is bent at one end of the first detachable fixing member and inserted into the bar groove to fix the LED strip bar so that the user can easily attach and detach it. It may be provided with a second separable fixture and a third separable fixture that is bent at one end of the second separable fixture and extends in a diagonal direction to easily guide the insertion of the LED strip bar.

The extruded housing includes a housing to which the fixing body is fixed, a coupling surface formed at both ends of the housing to which the diffuser is coupled, an installation hole drilled in the housing and installed in a built-in type or a housed type during construction, and the housing of the extruded housing. It may be provided with installation irregularities formed in a concavo-convex shape on one side, and installation clips that are inserted into the installation irregularities to suspend and secure the extruded housing so that it can be installed in a pendant shape during construction.

The installation irregularities include a first protrusion protruding in one direction, a first groove forming a space in the lower part of the first protrusion, a second groove forming a space while facing the first groove, and the second groove. It may be provided with a second protrusion that protrudes from the top and secures the installation clip so that it does not fall off.

The installation clip includes a first clip that is inserted into the first groove and part of the clip is caught, a second clip that is inserted into the second groove and part of the clip is caught so that it does not fall out of the installation unevenness, and the first clip and the second clip. It may be provided with a clip groove formed in between and partially cut to facilitate insertion into the installation irregularities.

The LED strip bar may be inserted into the bar holder even if the extruded housing has a curved shape, an edge shape, or a polygonal shape due to the material characteristics of the silicon tube.

The LED strip bar may be equipped with an LED converter that continuously connects a plurality of the LED strip bars during ceiling construction.

According to line lighting using an LED strip bar according to one aspect of the present invention, the extruded housing and the LED strip bar can be separated and moved, so there is no risk of damaging the LED strip bar, and it can be wound, making it easy to move and install, and reducing transportation costs and Installation costs can be reduced.

In addition, consumers can easily install and provide after-sales service due to the bar groove of the LED strip bar and the bar fixture of the extruded housing.

In addition, because the LED strip bar is made of silicone, it is resistant to shock during earthquakes and vibrations, and even if the LED strip bar fixed to the extruded housing falls off, it can prevent casualties because the LED strip bar is made of silicon.

In addition, the LED strip bar can withstand moisture and flooding and be waterproof during rainy seasons due to the material characteristics of the silicone tube.

In addition, the LED strip bar is made of silicone and can be inserted and fixed into an extruded housing with a curved or polygonal border.

In addition, the LED strip bar uses a constant current LED converter, which is effective in reducing costs and energy as no unnecessary losses other than the power consumption for light source output occur, and it is easy to connect to the LED converter and is very easy to connect multiple LED strip bars. After installation, RGB, color temperature, emotional lighting, and brightness desired by the consumer can be easily exchanged and installed.

Figure 1 is a front view showing the overall appearance of line lighting using an LED strip bar according to an embodiment of the present invention.
Figure 2 is a front view showing an exploded view of the line lighting using the LED strip bar in Figure 1.
Figure 3a is a cross-sectional view showing the embedded line lighting using the LED strip bar in Figure 1.
Figure 3b is a cross-sectional view showing the direct installation of line lighting using an LED strip bar in Figure 1.
Figure 4 is a cross-sectional view showing the line lighting using the LED strip bar in Figure 1 installed in a pendant type.
Figure 5a is a perspective view showing inserting an LED strip bar into an extruded housing with a circular border.
Figure 5b is a perspective view showing inserting an LED strip bar into an extruded housing with a square border.
Figure 6a is a diagram showing connecting a plurality of LED strip bars to an LED converter.
Figure 6b is a diagram showing connecting a plurality of LED strip bars to an LED converter.
Figure 7 is a front view showing the overall appearance of line lighting using an LED strip bar according to another embodiment of the present invention.
Figure 8 is a front view showing an exploded view of the line lighting using the LED strip bar in Figure 7.

Hereinafter, an embodiment of the present invention will be described in detail with reference to the attached drawings. However, it goes without saying that the present invention is not limited to these embodiments and can be modified into various forms.

In the drawings, parts not related to the description are omitted in order to clearly and briefly explain the present invention, and identical or extremely similar parts are denoted by the same drawing reference numerals throughout the specification. In addition, in the drawings, the thickness, area, etc. are enlarged or reduced in order to make the explanation more clear, so the thickness, area, etc. of the present invention are not limited to what is shown in the drawings.

And when a part is said to “include” another part in the entire specification, it does not exclude other parts and may further include other parts, unless specifically stated to the contrary.

Figure 1 is a front view showing the overall appearance of line lighting using an LED strip bar according to an embodiment of the present invention.

As shown in FIG. 1, line lighting using an LED strip bar according to an embodiment of the present invention outputs an LED light source and withstands vibration and impact due to material characteristics when an earthquake or vibration occurs, and maintains load and material characteristics even if it falls off. It prevents damage to human life, and is waterproof to withstand moisture and flooding due to the material characteristics during the rainy season. The LED strip bar (100), which is wound for easy movement, and the LED strip bar (100) are inserted inside. The extruded housing 300 can be provided with an extruded housing 300 that is fixed and has irregularities formed on one side, so that it is fixed in any one of the form of embedding, attachment, or pendant during ceiling construction.

Here, the LED strip bar 100 can be inserted into the extrusion housing 300 and receive power to output an LED light source. Since it is made of silicon material, it can be easily moved because it is put into the field in a rolled state.

The LED strip bar 100 can be changed to the desired color temperature, is light in weight, and has strong resistance to vibration and shock, so it may not be damaged and cause personal injury even when dropped.

The LED strip bar 100 can prevent the LED light source from being damaged due to underground flooding during the rainy season, and can have characteristics that are resistant to humidity when moisture occurs in the basement.

The LED strip bar 100 has constant current, so it can have excellent light efficiency. Since this is not a current control method through resistance, energy savings can be achieved.

The LED strip bar (100) can be used by cutting it directly on site (5cm, 10cm, or 30cm, etc.) to the length desired by the user at any location.

On the other hand, most conventional technologies control constant current through resistance when 24V is applied in a constant voltage manner. Applying a constant current driving circuit using constant voltage not only requires a very long cutting length, but also makes the circuit complex, making the cost structure unsuitable. For this reason, constant voltage type line lighting controls current through resistance. At this time, in the case of the constant voltage method, the light efficiency will be very low. For example, if a 24V constant voltage converter is used for 10cm, a current of 100mA flows to the LED, and the LED has a structure of 6EA connected in series, the loss is about 0.6W on the resistor side and 1.8W power consumption on the light source side, for a total of 100mA. Power consumption of 2.4W occurs. Assuming 1M, an unnecessary loss of 6W occurs within 24W of power consumption, and the longer the length, the greater the loss. Therefore, when the length of the PCB is long, the current flowing through the first stage of the PCB is very large, causing a voltage drop, which causes a difference in the amount of light (brightness) between the first and last stages. In addition, the thickness of the copper plate of the PCB pattern through which current flows becomes thicker, resulting in a structure with limited length. This affects light efficiency and causes a lot of energy loss, so it is often used as an auxiliary light source with a small current rather than as a main light source.

In contrast, in the case of the constant current method of the present invention, the LED converter 150 is applied as a constant current type, and the LED strip bar 100 is used as a main light source according to the constant current configuration. In the case of the constant current method, unlike the constant voltage method, the same light source can be obtained even if 18V voltage is supplied rather than 24V voltage. For example, if an 18V constant current converter is used for 10cm, a current of 100mA flows to the LED, and the LEDs are connected in series with 6EA, the total power consumption is 1.8W, and assuming 1M, the power consumption is 18W. , it has the advantage of not causing unnecessary losses. Accordingly, compared to the line lighting method of the prior art, the light efficiency of the present invention is very high and no unnecessary energy loss occurs. In addition, in the case of the LED strip bar 100 of the present invention, a high voltage is used, so less current flows, causing very little loss in the PCB pattern, and the copper plate thickness of the PCB pattern is small, making the cost cheaper. Therefore, in the case of constant current line lighting using the LED strip bar 100 of the present invention compared to the LED line lighting of the prior art, when an LED converter 150 with the same power consumption is used, the length of the line lighting is longer in the case of the constant current method. It can be used in

In addition, the LED strip bar 100 includes an LED 110 that outputs a light source, a light emitting part 120 that evenly emits the light source of the LED 110, and a coil that wraps around the LED 110 for convenient movement. A silicon tube 130 made of possible silicon material and fixed to the extrusion housing 300 may be provided.

The light emitting unit 120 may include a first light emitting surface 121 inside the silicon tube 130 that first emits light from the LED 110.

The second light-emitting surface 122 is formed outside the silicon tube 130 and can emit light emitted from the first light-emitting surface 121 outward.

The light emitting unit 120 is made of the same material as the silicon tube 130, but has higher transparency and may be suitable for emitting light.

Next, the silicon tube 130 has an extruded surface 131 that is double extruded with the light emitting part 120, and a sliding surface 132 in which irregularities are formed on one surface of the silicon tube 130 and abutted against the extrusion housing 300. ) and a bar groove 140 in which grooves are formed on both sides of the silicon tube 130 and the protrusions of the extrusion housing 300 are inserted and fixed.

The extruded surface 131 can be formed by a double extrusion method because the silicon tube 130 and the light emitting part 120 are formed of the same material, but have different transparency.

The sliding surface 132 is formed on one outer surface of the silicon tube 130, and has a plurality of irregularities so that the silicon tube 130 with one surface facing the extrusion housing 300 can be easily slid and inserted. .

The sliding surface 132 and the silicon tube 130 can dissipate heat generated from the LED 110 to the extruded housing 300 facing each other.

The bar groove 140 is formed on both sides of the silicon tube 130, and a protruding protrusion is inserted into the bar groove 140 into the extrusion housing 300 to fix the LED strip bar 100 to the extrusion housing 300. You can do it.

Next, the extruded housing 300 is fixed by inserting the LED strip bar 100 inside, and a diffuser 200 is combined on one side to protect the extruded housing 300 from the outside while diffusing the light source from the LED strip bar 100. It can be installed on the ceiling by using the holes and fixing parts drilled in the extrusion housing 300.

The extruded housing can be made of PC and synthetic resin materials in addition to aluminum.

Through this, line lighting using an LED strip bar according to an embodiment of the present invention can be moved by separating the extruded housing 300 and the LED strip bar 100, so there is no risk of damaging the LED strip bar 100. , movement can be more convenient due to the LED strip bar 100 that can be wound.

In addition, since the LED strip bar 100 is made of a silicone material, the LED strip bar 100 made of a silicone material that is resistant to vibration and shock when an earthquake occurs can be fixed, and if the LED strip fixed to the extrusion housing 300 Even if the bar 100 falls off, casualties can be prevented by using silicone material.

In addition, it is very easy to couple the LED strip bar 100 to the extruded housing 300, so even if you are not an ordinary technician, a resident can pull and remove the bar groove 140 fixed to the protrusion of the extruded housing 300 to install another LED strip bar ( 100) can be easily replaced.

In addition, the LED strip bar 100 can be replaced with color temperature (single color LED), color temperature change (Dual LED), or color temperature and RGB (Dual LED + RGB LED) to adjust the LED strip bar 100 to the color desired by the resident. .

Next, an extrusion housing for line lighting using an LED strip bar according to an embodiment of the present invention will be described in detail.

Figure 2 is a front view showing an exploded view of the line lighting using the LED strip bar in Figure 1.

Referring to Figure 2, the extruded housing 300 includes a housing 310 that dissipates the heat of the LED strip bar 100, and a coupling surface 320 formed at both ends of the housing 310 to which the diffuser 200 is coupled. And, the bar fixing groove 330 is formed inside the housing 310 and inserts the LED strip bar 100, and the bar groove 140 is formed inside the housing 310 and is inserted into the LED strip bar 100. It may be provided with a bar fixture 340 for fixing the.

The housing 310 may form a space including a body installed on the ceiling and an LED strip bar 100 extending to both sides of the body.

The coupling surfaces 320 may be formed on surfaces extending from both sides of the housing 310 and may have protrusions formed on some of them so that the diffuser 200 can be coupled thereto.

The diffuser 200 is mounted on one side of the extrusion housing 300 and can diffuse the light source output from the LED strip bar 100.

The bar fixing groove 330 is formed inside the housing 310, and may be provided as a space for inserting the LED strip bar 100 into the space between the bar fixing bars 340 protruding on both sides. The LED strip bar 100 inserted into the bar fixing groove 330 can be fixed by having one side against the housing 310 and both sides against the bar fixing base 340.

The bar fixture 340 includes a first fixture 341 protruding from the extrusion housing 300, a second fixture 342 bent at one end of the first fixture 341 and inserted into the bar groove 140, and a second fixture 342. A third fixture 343 may be provided that is bent at one end of the fixture 342 and extends diagonally to easily guide the insertion of the LED strip bar 100.

The first fixers 341 each protrude from the inside of the housing 310 to form bar fixing grooves 330, and can be fixed against both sides of the LED strip bar 100.

The second fixture 342 may be bent inward at one end of the first fixture 341 and inserted into the bar groove 140 formed in the LED strip bar 100. At this time, the second fixture 342 can be firmly fixed by pushing the bar groove 140 made of silicon.

The third fixture 343 extends diagonally outward from one end of the second fixture 342 and can guide the LED strip bar 100 so that it can be easily inserted. At this time, the third fixture 343 is spread outward, so it can be easy for the resident to replace the LED strip bar 100.

Next, the extruded housing 300 has an installation hole 350 that is perforated in the housing 310 and installed in a built-in or integrated type during construction, and an installation unevenness 360 formed in an uneven shape on one side of the housing 310. And, an installation clip 370 can be provided that is inserted into the installation unevenness 360 and hangs and fixes the extruded housing 300 so that it can be installed in a pendant type during ceiling construction.

The installation hole 350 is drilled from the inside of the housing 310 to the outside to form a hole into which the coupler 20, which will be described later, is inserted, and additional work is performed to completely insert the head of the coupler 20. It can be.

In addition, the installation hole 350 forms a space where one outer surface of the housing 310 is spaced lower than the other surface of the housing, and the outer surface is pressed against the ceiling by the force with which the coupler 20 is fastened. A separation surface 351 that increases the fastening force may be provided as much as possible.

The installation unevenness 360 includes a first protrusion 361 protruding in one direction, a first groove 362 forming a space at the bottom of the first protrusion 361, and a space facing the first groove 362. It may be provided with a second groove 363 forming a second groove 363 and a second protrusion 364 that protrudes from the top of the second groove 363 and secures the installation clip 370 so that it does not fall off.

The first protrusion 361 protrudes from the inner entrance of the installation unevenness 360, and can support the first clip 371 so that it does not fall off.

The first groove 362 is formed as a groove in the lower part of the first protrusion 361, and forms a space into which the first clip 371 is inserted, and the protrusion protruding from the first clip 371 is seated to form the first protrusion 361. It can be fixed so that it does not fall off by the protrusion 361.

The second groove 363 is formed as a groove in the lower part of the second protrusion 364, and forms a space into which the second clip 372 is inserted, and the protrusion protruding from the second clip 372 is seated to form the second protrusion. It can be fixed to prevent it from falling off by (364).

The second protrusion 364 protrudes from the outer entrance of the installation unevenness 360, and can support the second clip 372 so that it does not fall off. The size of the second protrusion 364 may be larger than that of the first protrusion 361, making it easier to fix the second clip 372 so that it does not fall off.

Next, the installation clip 370 is a first clip 371 that is inserted into the first groove 362 and partially catches, and a third clip 371 that is inserted into the second groove 363 and partially catches so as not to fall out of the installation unevenness 360. It may be provided with a clip groove 373 formed between the second clip 372 and the first clip 371 and the second clip 372 and partially cut to facilitate insertion into the installation unevenness 360.

The first clip 371 is inserted into the first groove 362 and the first protrusion 361, and the protrusion protrudes so that it does not fall out of the first groove 362, so that it can be fixed by being caught on the first protrusion 361.

The second clip 372 is inserted into the second groove 363 and the second protrusion 364, and the protrusion protrudes so as not to fall out of the second groove 363 and is fixed by being caught on the second protrusion 364. It is formed to be larger in size than (371) and is inserted first and is positioned in the second groove (363), and then the first clip (371) can be inserted.

The clip groove 373 is partially incised on the inside to facilitate insertion in the process of inserting the second clip 372 and the first clip 371 into the second groove 363 and the first groove 362 in turn. After all of the second clips 372 and the first clips 371 are inserted, the clip grooves 373 can be opened back to their original state to increase the fixing force.

Through this, line lighting using an LED strip bar can be either a built-in type that is embedded in the ceiling during ceiling construction by the installation hole 350, installation unevenness 360, and installation clip 370 formed in the extruded housing 300, or a direct lighting type installed in the ceiling. It can be provided as a direct type that is fixed with a wire, and a pendant type that has a wire fixed to the ceiling and is fixed to the wire.

Next, a detailed description will be given of the embedded type, direct type, and pendant type of line lighting using an LED strip bar according to an embodiment of the present invention.

Figure 3a is a cross-sectional view showing the line lighting using the LED strip bar in Figure 1 constructed as a built-in type, and Figure 3b is a cross-sectional view showing the line lighting using the LED strip bar in Figure 1 being installed as a direct type, and Figure 4 is a cross-sectional view showing the pendant-type line lighting using an LED strip bar in Figure 1.

Referring to FIGS. 3A and 3B, line lighting using an LED strip bar can be provided as a buried type embedded in the ceiling through an extrusion housing 300 and a direct type directly fixed to the ceiling.

First, the embedded type can be fixed by embedding the extruded housing 300 so that one side of the finished ceiling and one side of the extruded housing 300 where the diffuser 200 is assembled are located on the same line.

Next, in the direct type, one side of the extruded housing 300 is fixed to one side of the finished ceiling, so that the extruded housing 300 can be fixed in a form that protrudes from the ceiling.

The embedded type and the direct type can be firmly fixed to the ceiling by combining the fastener 20 with a hole perforated in the extruded housing 300.

Referring to Figure 4, the installation clip 370, which will be described later, is inserted into the groove formed at the top of the extrusion housing 300, and the installation clip 370 is connected to a wire installed on the ceiling, forming an installation unevenness 360. The housing 300 can be fixed to the ceiling in a pendant manner.

The installation clip 370 is inserted into the second groove 363 from the second clip 372, and the first clip 371 is inserted into the first groove 362, and is inserted into the clip groove 373 during the insertion process. The ease of insertion of the second clip 372 and the first clip 371 is increased, and after insertion is completed, the clip groove 373 returns to its original form to increase fixing force.

Through this, the extruded housing 300 is not only of the embedded type and the direct mounted type during ceiling construction, but also the installation clip 370, which is fixed to the wire installed on the ceiling, is fastened to the installation unevenness 360 of the extruded housing 300 to provide line lighting. It can also be installed as a pendant type.

Next, the process of inserting an LED strip bar into an extruded housing formed as a circular border of a line light using an LED strip bar according to an embodiment of the present invention will be described in detail.

Figure 5a is a perspective view showing insertion of an LED strip bar into an extrusion housing with a circular border, and Figure 5b is a perspective view showing insertion of an LED strip bar into an extrusion housing with a square border.

Referring to FIGS. 5A and 5B, the bar groove 140 can be fixed to the bar fixture 340 by inserting the LED strip bar 100 into the extruded housing 300 formed with a circular border or a square border.

First, because the LED strip bar 100 is a silicon tube 130 made of a highly flexible silicone material, it can be inserted and fixed into the extruded housing 300 having a curved or polygonal shape.

Since the LED strip bar 100 is made of a silicone material, it can be wound, making it very easy to move on site. Even in the field, the extruded housing 300 is first constructed, and then the bar fixture 340 formed on the extruded housing 300 is used. The bar groove 140 of the LED strip bar 100 is inserted and fixed, so the work difficulty can be very low.

At this time, the LED strip bar 100 is easy to withstand vibration and impact due to the material characteristics of the silicon tube 130 when an earthquake occurs, and even if it falls off the bar fixture 340 when an earthquake occurs, it is not affected by the material characteristics of the silicon tube 130. Damage to life can be prevented by this.

Due to the material characteristics of the LED strip bar (100), it is waterproof when underground is flooded during the rainy season and has strong characteristics against humidity.

Next, the process of continuously connecting a plurality of LED strip bars of line lighting using an LED strip bar according to an embodiment of the present invention will be described in detail.

Figure 6a is a diagram showing connecting a plurality of LED strip bars to an LED converter. Figure 6b is a diagram showing connecting a plurality of LED strip bars to an LED converter.

Referring to FIGS. 6A to 6B, the LED strip bar 100 may be provided with an LED converter 150 that connects a plurality of LED strip bars 100 in succession during ceiling construction.

In order to continuously connect a plurality of LED strip bars 100 during ceiling construction, an LED converter 150 with an appropriate capacity can be placed in some sections to supply power.

The LED converter 150 can be controlled by connecting a plurality of LED strip bars 100 in succession for a long period of time using an appropriate capacity.

The prior art is line lighting using a constant voltage method, which has limitations on length. The reason is that the wire voltage drop occurs depending on the thickness and distance of the wire output from the LED converter, so the position of the LED converter is not uniform when installing line lighting. In addition, the prior art is limited in length due to the voltage drop across the PCB pattern copper plate, and has characteristics that make installation difficult due to variations in brightness of the light source. In particular, the prior art has a more complicated installation structure in the case of long line lighting.

On the other hand, the LED strip bar 100 of the present invention has a high voltage and low current flow method, so it has the advantage that the voltage drop in the wire is minimal even if the thickness of the wire output from the LED converter 150 is thin and the distance is long. In other words, the present invention has the advantage of convenient A/S and management by installing the LED converter in a specific fixture, and when using the LED strip bar 100 as line lighting, it is very easy to move, store, and install. You can. For example, in the structure of using one LED converter 150 and installing LED strip bars 100 in parallel, as shown in Figure 6b, assuming that one LED strip bar 100 is 10M, the LED converter 150 By tying two LED strip bars (100) in parallel at the output end, it is possible to easily install them up to a length of 20m or more.

In contrast, in the case of conventional lighting, the length of the lamp is at most 2.4m, so there is a disadvantage in that it has a very complicated installation structure.

In addition, as shown in Figure 6a, a structure in which one LED converter 150 is used and LED strip bars 100 are connected and installed in series can be shown. For example, assuming that one LED strip bar (100) is 10M, it has the advantage of having a structure in which the installation can be completed by connecting the LED strip bar (100) wires once, such as 20M or 30M, when installed in series.

Next, line lighting using an LED strip bar according to another embodiment of the present invention will be described. In the following description, only parts that are different from the above-described embodiment will be described in detail, and detailed descriptions of parts that are the same or extremely similar will be omitted.

Figure 7 is a front view showing the overall appearance of line lighting using an LED strip bar according to another embodiment of the present invention.

As shown in FIG. 7, line lighting using an LED strip bar according to another embodiment of the present invention outputs an LED light source and withstands vibration and impact due to material characteristics when an earthquake or vibration occurs, and maintains load and material characteristics even if it falls off. It prevents human casualties, and is waterproof to withstand moisture and flooding due to the material characteristics during the rainy season. It is equipped with an LED strip bar (100) that is wound for easy movement, and an LED strip bar (100) inside. The extruded housing 300 is formed with irregularities on one side and is fixed in any of the form of embedding, attachment, or pendant during ceiling construction, and is fixed to the inside of the extrusion housing 300 and inserting the LED strip bar 100. It may be provided with a detachable fixing means 400 that dissipates heat while being fixed on both sides.

First, the extruded housing 300 includes a housing 310 to which the detachable fixing means 400 is fixed, a coupling surface 320 formed at both ends of the housing 310 to which the diffuser 200 is coupled, and a housing 310 An installation hole 350 that is drilled into the hole and installed as a built-in or integrated type during construction, an installation unevenness 360 formed in an uneven shape on one side of the housing 310, and a pendant inserted into the installation unevenness 360 during construction. An installation clip 370 may be provided to hang and secure the extrusion housing 300 so that it can be installed in a mold.

The extrusion housing 300 forms a space therein and can be fixed from the inside by being provided with a detachable fixing means 400.

The separate fixing means 400 is fixed to the extrusion housing 300, and after being fixed, the LED strip bar 100 can be inserted and fixed.

One side of the detachable fixing means 400 may be placed against the extrusion housing 300 to facilitate dissipation of heat generated from the LED strip bar 100.

Next, a separate fixing means for line lighting using an LED strip bar according to another embodiment of the present invention will be described in detail.

Figure 8 is a front view showing an exploded view of the line lighting using the LED strip bar in Figure 7.

Referring to FIG. 8, the detachable fixing means 400 includes a fixing body 410, a first detachable fixing unit 420 extending on both sides from the fixing body 410, and a bent end at one end of the first detachable fixing unit 420. A second separable fixture 430 is inserted into the bar groove 140, and a third separable fixture is bent at one end of the second separable fixture 430 and extends diagonally to easily guide the insertion of the LED strip bar 100. A fixture 440 may be provided.

One side of the fixing body 410 may be in contact with the extrusion housing 300, and the other side may be in contact with the LED strip bar 100.

The first separate fixture 420 protrudes from both sides of the fixture body 410 and can be fixed against both sides of the LED strip bar 100.

The second separate fixture 430 may be bent inward at one end of the first separable fixture 420 and inserted into the bar groove 140 formed in the LED strip bar 100. At this time, the second detachable fixture 430 can be firmly fixed by pushing the bar groove 140 made of silicon.

The third separate fixture 440 extends diagonally outward from one end of the second separable fixture 430 and can guide the LED strip bar 100 to be easily inserted. At this time, the third separate fixture 440 is spread outward, so it can be easy for the resident to replace the LED strip bar 100.

Through this, line lighting using an LED strip bar according to another embodiment of the present invention can be moved by separating the extruded housing 300 and the LED strip bar 100, so there is no risk of damaging the LED strip bar 100. , movement can be more convenient due to the LED strip bar 100 that can be wound.

In addition, since the LED strip bar 100 is made of a silicone material, the LED strip bar 100 made of a silicone material that is resistant to vibration and shock when an earthquake occurs can be fixed, and if the LED strip fixed to the extrusion housing 300 Even if the bar 100 falls off, casualties can be prevented by using silicone material.

In addition, since it is very easy to couple the LED strip bar 100 to the extrusion housing 300 and the detachable fixing means 400, a resident, even if he is not a skilled person, can pull the bar groove 140 fixed to the detachable fixing means 400. It can be easily removed and replaced with another LED strip bar (100).

In addition, the LED strip bar 100 can be replaced with color temperature (single color LED), color temperature change (Dual LED), or color temperature and RGB (Dual LED + RGB LED) to adjust the LED strip bar 100 to the color desired by the resident. .

In the above, line lighting using an LED strip bar according to an embodiment of the present invention has been described, but the spirit of the present invention is not limited to the embodiment presented herein. Additionally, a person skilled in the art who understands the spirit of the present invention will be able to easily suggest other embodiments by adding, changing, deleting, or adding components within the scope of the same spirit, but this is also within the scope of the present invention. They will say it costs money.

10: Ceiling 20: Coupler
100: LED strip bar 110: LED
120: light emitting part 121: first light emitting surface
122: second light emitting surface 130: silicone tube
131: extrusion surface 132: sliding surface
140: Bar Home 150: LED converter
200: diffuser 300: extrusion housing
310: housing 320: coupling surface
330: Bar fixing groove 340: Bar fixing stand
341: 1st fixture 342: 2nd fixture
343: Third fixture 350: Installation hole
351: Separation surface 360: Installation irregularities
361: first protrusion 362: first groove
363: second groove 364: second protrusion
370: Installation clip 371: First clip
372: 2nd clip 373: Clip home
400: Separate fixing means 410: Fixing body
420: First detachable fixture 430: Second separable fixture
440: Third detachable fixture

Claims (19)

An LED strip bar is made of silicone material and is wound for easy movement while the LED light source is output,
The LED strip bar is inserted and fixed inside, and an extruded housing is provided with irregularities on one side and is fixed in any one of the form of embedding, housing, or pendant during ceiling construction,
The LED strip bar consists of an LED that outputs a light source, a light emitting part that evenly emits the light source of the LED, and a silicone tube fixed to the extrusion housing made of a silicone material that surrounds the LED and can be wound for easy movement. Equipped with
The silicone tube has an extrusion surface that is double extruded with the light emitting part, a sliding surface in which irregularities are formed on one side of the silicone tube and faces the extrusion housing, and grooves are formed on both sides of the silicone tube to form the extrusion housing. It is provided with a bar groove that allows the user to easily attach and detach the protrusions while inserting and fixing them,
The extruded housing includes a housing that dissipates heat from the LED strip bar, a coupling surface formed on both ends of the housing to which a diffuser is coupled, a bar fixing groove formed inside the housing into which the LED strip bar is inserted, and A bar holder is provided inside the housing to fix the LED strip bar while the bar groove is inserted, so that the user can easily attach and detach it,
The bar fixture includes a first fixture protruding from the extrusion housing, a second fixture bent at one end of the first fixture and inserted into the bar groove, and the LED bent at one end of the second fixture and extending diagonally. It is provided with a third fixture that easily guides the insertion of the strip bar,
The extruded housing has an installation hole drilled in the housing and installed in a built-in or housed type during construction, an installation unevenness formed in an uneven shape on one surface of the housing, and an installation hole inserted into the installation unevenness and installed in a pendant type during ceiling construction. Provided with an installation clip to hang and secure the extrusion housing as much as possible,
The installation irregularities include a first protrusion protruding in one direction, a first groove forming a space in the lower part of the first protrusion, a second groove forming a space while facing the first groove, and the second groove. Line lighting using an LED strip bar, characterized in that it has a second protrusion that protrudes from the upper part and secures the installation clip so that it does not fall off. delete delete delete delete delete delete According to clause 1,
The installation clip includes a first clip that is inserted into the first groove and is partially caught,
A second clip that is inserted into the second groove and is partially caught so that it does not fall out of the installation unevenness,
Line lighting using an LED strip bar, characterized in that it has a clip groove formed between the first clip and the second clip and partially cut to facilitate insertion into the installation unevenness. According to clause 1,
Line lighting using an LED strip bar, characterized in that the LED strip bar can be inserted into the bar holder even if the extruded housing has a curved shape, border shape, or polygonal shape due to the silicon tube. According to clause 1,
Line lighting using an LED strip bar, characterized in that the LED strip bar includes an LED converter that continuously connects a plurality of the LED strip bars during ceiling construction. An LED strip bar is made of silicone material and is wound for easy movement while the LED light source is output,
An extruded housing that has the LED strip bar inside and has irregularities formed on one side and is fixed in any one of the form of a built-in, housed, or pendant type during ceiling construction,
Equipped with a detachable fixing means fixed to the inside of the extrusion housing and dissipating heat while inserting the LED strip bar and fixing it on both sides;
The LED strip bar consists of an LED that outputs a light source, a light emitting part that evenly emits the light source of the LED, and a silicone tube fixed to the extrusion housing made of a silicone material that surrounds the LED and can be wound for easy movement. Equipped with
The silicone tube has an extrusion surface that is double extruded with the light emitting part, a sliding surface in which irregularities are formed on one side of the silicone tube and faces the extrusion housing, and grooves are formed on both sides of the silicone tube to form the extrusion housing. It is provided with a bar groove that allows the user to easily attach and detach the protrusions while inserting and fixing them,
The detachable fixing means includes a fixing body, a first detachable fixing member extending from both sides of the fixing body, and a device that is bent at one end of the first detachable fixing member and inserted into the bar groove to fix the LED strip bar so that the user can easily attach and detach it. A second separable fixture is provided, and a third separable fixture is bent at one end of the second separable fixture and extends in a diagonal direction to facilitate insertion of the LED strip bar.
The extruded housing includes a housing to which the fixing body is fixed, a coupling surface formed at both ends of the housing to which the diffuser is coupled, an installation hole drilled in the housing and installed in a built-in type or a housed type during construction, and the housing of the extruded housing. It is provided with installation irregularities formed in a concavo-convex shape on one side, and an installation clip that is inserted into the installation irregularities and hangs and secures the extruded housing so that it is installed in a pendant shape during construction,
The installation irregularities include a first protrusion protruding in one direction, a first groove forming a space in the lower part of the first protrusion, a second groove forming a space while facing the first groove, and the second groove. Line lighting using an LED strip bar, characterized in that it has a second protrusion that protrudes from the upper part and secures the installation clip so that it does not fall off. delete delete delete delete delete According to claim 11,
The installation clip includes a first clip that is inserted into the first groove and is partially caught,
A second clip that is inserted into the second groove and is partially caught so that it does not fall out of the installation unevenness,
Line lighting using an LED strip bar, characterized in that it has a clip groove formed between the first clip and the second clip and partially cut to facilitate insertion into the installation unevenness. According to claim 11,
Line lighting using an LED strip bar, wherein the LED strip bar can be inserted into the detachable fixing means even if the extruded housing has a curved shape, a border shape, or a polygonal shape due to the silicon tube. According to claim 11,
Line lighting using an LED strip bar, characterized in that the LED strip bar includes an LED converter that continuously connects a plurality of the LED strip bars during ceiling construction.

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