WO2018214847A1 - 陶瓷加热片结构 - Google Patents
陶瓷加热片结构 Download PDFInfo
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- WO2018214847A1 WO2018214847A1 PCT/CN2018/087667 CN2018087667W WO2018214847A1 WO 2018214847 A1 WO2018214847 A1 WO 2018214847A1 CN 2018087667 W CN2018087667 W CN 2018087667W WO 2018214847 A1 WO2018214847 A1 WO 2018214847A1
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- H—ELECTRICITY
- H05—ELECTRIC TECHNIQUES NOT OTHERWISE PROVIDED FOR
- H05B—ELECTRIC HEATING; ELECTRIC LIGHT SOURCES NOT OTHERWISE PROVIDED FOR; CIRCUIT ARRANGEMENTS FOR ELECTRIC LIGHT SOURCES, IN GENERAL
- H05B3/00—Ohmic-resistance heating
- H05B3/20—Heating elements having extended surface area substantially in a two-dimensional plane, e.g. plate-heater
- H05B3/22—Heating elements having extended surface area substantially in a two-dimensional plane, e.g. plate-heater non-flexible
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- the invention relates to a heating structure, in particular to a ceramic heating sheet structure.
- the ceramic heating sheet is a heating structure that can be applied to electric heating products such as electric heating stoves, hair dryers, electric mosquito coils, etc., which need to be heated or maintained at a constant temperature. When used, the ceramic heating sheets can be energized to achieve the effect of heating or maintaining the constant temperature. .
- the existing ceramic heating sheets are mostly made of a ceramic material mixed with a conductive metal material, or a conductive layer is formed by immersion or spraying on the ceramic sheet, and then electrically heated by a conductive metal material or a conductive layer.
- the ceramic heating sheet Since the resistance values of the various regions on the existing ceramic heating sheet are similar, the ceramic heating sheet will be heated together after being energized. Although the functions of the ceramic heating sheets are different, it is impossible to adjust different temperature requirements, and the heating zone is easily caused. The temperature in the assembly area is the same or similar, and there is a safety concern whether it is used for heating or installation.
- the present invention provides a ceramic which can be adjusted to an appropriate temperature in response to the action and temperature requirements of each region.
- the sheet structure is heated, thereby improving the safety of the heating and mounting of the ceramic heating sheet.
- the ceramic heating sheet structure of the present invention has a heating sheet, and a heating surface is formed on opposite sides of the heating sheet, and a plurality of through holes are formed to communicate the heating surfaces on both sides, and the inner peripheral walls of the through holes are Forming a heat generating inner surface, wherein at least one of the heat generating surfaces is provided with a metal conductive coating layer having a resistance value of 10 ohm or less, and the heat generating inner surface of each of the through holes is provided with a metal conductive coating layer having a resistance value of 20 ohm or more And the heat generating inner surfaces of the through holes are electrically connected to the heat generating surfaces on both sides to form a resistance loop.
- the opposite sides of the heating sheet are respectively provided with a metal conductive plating layer having a resistance value of 10 ohm or less.
- one of the heat generating surfaces of the heating sheet is provided with a T-shaped insulating region extending from the center of the heat generating surface to the periphery, and the heat generating surface is divided into an input region that is not energized with each other.
- one of the heat generating surfaces of the heater chip is provided with a linear insulating region extending from one side of the periphery of the heat generating surface to the other side of the periphery, and the heat generating surface is separated into an input that is not energized.
- a second conductive region is formed on the other heat generating surface, wherein the input region is electrically connected to the second conductive region through the corresponding through hole, and the second conductive region is electrically connected through the corresponding through hole In the output area.
- the ceramic heating sheet structure of the invention mainly uses a metal conductive coating layer with a lower resistance value on at least one of the two sides of the heating sheet, so that at least one side surface of the heating sheet has a lower temperature for heating, which is suitable for assembly installation.
- the contact surface or the low temperature heating is required, and the metal inner surface of the heating sheet is provided with a metal conductive coating layer having a high resistance value, so that the internal heating temperature of the through hole of the heating sheet is high, and the use of high temperature heating is provided.
- the demand in response to the role of different regions and temperature requirements to provide the appropriate temperature, increase the safety of installation and heating.
- Fig. 1 is a perspective view showing the first embodiment of the present invention.
- Fig. 2 is another perspective view of the first embodiment of the present invention.
- Figure 3 is a partially enlarged side elevational cross-sectional view showing a first embodiment of the present invention.
- Figure 4 is a partially enlarged end elevational cross-sectional view showing a first embodiment of the present invention.
- Fig. 5 is a schematic view showing the current of the resistor circuit of the first embodiment of the present invention.
- Figure 7 is another perspective view of a second embodiment of the present invention.
- Figure 9 is a perspective view of a third embodiment of the present invention.
- Figure 10 is another perspective view of a third embodiment of the present invention.
- Figure 11 is a schematic diagram of currents of a resistor loop in accordance with a third embodiment of the present invention.
- the first embodiment of the ceramic heating sheet structure of the present invention has a disk-shaped heating sheet 10, which is formed on the opposite sides to form an upper heating surface 11 and a lower heating surface 12, respectively.
- a plurality of through holes 13 are formed in the sheet 10 to communicate with the upper heat generating surface 11 and the lower heat generating surface 12, and the inner peripheral wall of each of the through holes 13 forms a heat generating inner surface 130, and the heat generating inner surface 130 is electrically connected to the upper heat
- the surface 11 and the lower heat generating surface 12 form a resistance loop.
- the arrangement of the resistor loop belongs to the prior art, and the present invention does not limit the type of the resistor loop;
- the upper heat generating surface 11 and/or the lower heat generating surface 12 of the heating sheet 10 are provided with metal conductive coating layers 111 and 121 having a resistance value of 10 ohm or less.
- the heat-generating inner surface 130 of the 13 is provided with a metal conductive coating layer 131 having a resistance value of 20 ohm or more;
- the upper heating surface 11 of the heating sheet 10 is provided with a first insulating region, and the first insulating portion includes a plurality of first arms 140, each of the plurality of first arms 140 extending from the center of the upper heating surface 11 to a peripheral edge of the heat generating surface; in other words, the first insulating region extends outward from the center of the upper heat generating surface 11 to form a radial shape;
- an input region 112 and an output region 114 of the first arm portion 140 facing the one of the second arm portions 150 are electrically non-energized, that is, The first arm portion 140 facing the second arm portion 150 and the two first arm portions 140 adjacent thereto form the input region 112 and the output region 114 respectively; the remaining adjacent first arm A first conductive region 113 that is not energized is formed between the portions 140, and each of the first conductive regions 113 and the input region 112 and the output region 114 are not energized with each other; the lower heat generating surface 12 is adjacent to each other
- the second arm portion 150 is partitioned into a second conductive region 120 that is not energized with each other; the number of the second conductive regions 120 is one more than the number of the first conductive regions 113;
- a current is first input to the input region 112 of the upper heat generating surface 11 through the input terminal 16, and then the current is passed through.
- the through holes 13 of the region 112 are transferred to the second conductive region 120 on the right side of the lower heat generating surface 12, and then transferred to the upper heat generating surface 11 through the through holes 13 corresponding to the first conductive regions 113.
- the first conductive region 113 then the current is transmitted to the second conductive region 120 on the left side of the lower heat generating surface 12 through the through holes 13 of the second conductive region 120 corresponding to the left side, and then passes through the corresponding output region 114.
- the through holes 13 are transmitted to the output region 114 of the upper heat generating surface 11 and finally flow out from the output terminal 17, that is, a cycle of the resistance loop is completed.
- the upper heat generating surface 11 and/or the lower heat generating surface 12 are provided with the metal conductive plating layers 111 and 121 having a resistance value of 10 ohm or less, when the current passes through the upper heat generating surface 11 And/or each region of the lower heat generating surface 12, the generated heat energy is less, the temperature is lower, and is suitable for mounting the contact surface during assembly, or providing low temperature heating, and further, due to the through holes 13
- the heat-generating inner surface 130 is provided with a metal conductive plating layer 131 having a resistance value of 20 ohm or more. Therefore, when a current passes through the heat-generating inner surface 130 of each of the through holes 13, the heat energy generated is high and the temperature is high. Heating the air that is passed into the blower or heating the air that is passed into the electric heater can be used to provide high temperature heating.
- the terminal 16 is electrically connected to the input region 112A of the upper heat generating surface 11A, and the output terminal 17 is electrically connected to the output region 114A of the upper heat generating surface 11A, and the resistor loop of the second embodiment is formed on the heating sheet 10A;
- a current is first input to the input region 112A of the upper heat generating surface 11A through the input terminal 16, and then the current passes through the corresponding input region 112A.
- the through holes 13 are transmitted to the second conductive region 120A of the lower heat generating surface 12A, and then the output to the upper heat generating surface 11A through the through holes 13 corresponding to the output region 114A of the upper heat generating surface 11A.
- the region 114A finally flows out of the output terminal 17, that is, completes a cycle of the resistance loop.
- the third embodiment of the ceramic heater chip structure of the present invention is substantially the same as the first and second embodiments, but the type of the resistor loop on the heater chip 10B is different.
- the first insulating region on the upper heat generating surface 11B of the heater chip 10B has a total of five first arm portions 140, and four of the first arm portions 140 divide the upper heat generating surface 11B into four equal portions, and the remaining One of the first arm portions further divides one of the 140 into two equal portions; the second equal portion is further divided into the input region 112B and the output region 114B, and the remaining three portions that are not separated are each a first conductive region 113B;
- the second insulating region on the lower heat generating surface 12B of the heating sheet 10B includes four second arm portions 150 that divide the lower heat generating surface 12B into four equal portions, and the four equal portions are respectively Four second conductive regions 120B;
- the path of the current through can be sequentially: the input region 112B, a second conductive region 120B, a first conductive region 113B, another second conductive region 120B, another first conductive region 113B, and another The second conductive region 120B and the output region 114B complete a cycle of the resistance loop;
- the ceramic heating sheet structure of the present invention mainly uses the metal conductive coating layers 111 and 121 having a lower resistance value on at least one of the two sides of the heating sheet 10, so that the temperature at which at least one surface of the heating sheet 10 generates heat is low, and is suitable.
- a metal conductive plating layer 131 having a relatively high resistance value is disposed on the heat generating inner surface 130 of the through hole 13 of the heating sheet 10 as a mounting contact surface to be assembled or a low temperature heating is required, so that the through hole 13 of the heating sheet 10 is provided.
- the internal heating temperature is high, providing the use of high-temperature heating, thereby providing appropriate temperature in response to the action and temperature requirements of different regions, increasing the safety of installation and heating.
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Abstract
本发明涉及一种陶瓷加热片结构，其具有一加热片，该加热片的相对两侧分别形成一发热面，并穿设有多个通孔连通两侧该发热面，且该各通孔的内周壁形成一发热内面，其中至少一侧的该发热面上设有电阻值为10欧姆以下的金属导电镀膜层，该各通孔的该发热内面上设有电阻值为20欧姆以上的金属导电镀膜层，且该各通孔的该发热内面分别电连接于两侧该发热面而形成一电阻回路，通电使用时，加热片的至少一侧表面发热的温度较低，适用于提供低温加热的需求，加热片的通孔内部发热温度较高，提供高温加热的使用需求，由此可因应不同温度需求提供适当的温度，增加安装与加热使用上的安全性。
Description
本发明涉及一种加热结构，尤指一种陶瓷发热片结构。
陶瓷加热片是一种可应用于电暖炉、吹风机、电蚊香等需要升温加热或维持恒温的电器产品上的发热结构，使用时可将陶瓷电热片通电，即可达到升温加热或维持恒温的效果。
现有的陶瓷加热片大多采用陶瓷材料与导电金属材料混合制成，或者是于陶瓷片上采用浸泡或喷涂的方式形成导电层，再通过导电金属材料或导电层通电发热。
由于现有陶瓷加热片上各区域的电阻值相近，因此通电后陶瓷加热片会整块一起升温，尽管陶瓷加热片各区域的作用不同，也无法调节出不同的温度需求，而容易导致加热区与组装区的温度皆相同或相近，不论是用于加热或者是安装都会产生安全上的疑虑。
发明内容
为解决现有陶瓷加热片各区域的加热温度相同，而无法配合各区域的作用调节出适当温度的问题，本发明提供一种能因应各区域的作用与温度需求，而调节成适当温度的陶瓷加热片结构，由此提升陶瓷加热片在加热与安装上的安全性。
本发明的陶瓷加热片结构，其具有一加热片，该加热片的相对两侧分别形成一发热面，并穿设有多个通孔连通两侧该发热面，且该各通孔的内周壁形成一发热内面，其中至少一侧的该发热面上设有电阻值为10欧姆以下的金属导电镀膜层，该各通孔的该发热内面上设有电阻值为20欧姆以上的金属导电镀膜层，且该各通孔的该发热内面分别电连接于两侧该发热面而形成一电阻回路。
较佳的是，前述的加热片的相对两侧分别设有电阻值为10欧姆以下的金属导电镀膜层。
较佳的是，前述的加热片的其中一发热面上设有自该发热面的中 央延伸至周缘的一T型绝缘区域，并将该发热面分隔成互不通电的一输入区域、一第一传导区域、一输出区域，另一发热面则于对应该T型绝缘区域的中线位置设有自该另一发热面周缘的一侧延伸至周缘另一侧的一直线绝缘区域，并将该另一发热面分隔成互不通电的两第二传导区域，其中，该输入区域通过对应的该通孔电连接于其中一该第二传导区域，该其中一第二传导区域通过对应该通孔电连接于该第一传导区域，该第一传导区域通过对应该通孔电连接于另一该第二传导区域，该另一第二传导区域通过对应该通孔电连接于该输出区域。
较佳的是，前述的加热片的其中一发热面上设有自该发热面周缘的一侧延伸至周缘另一侧的一直线绝缘区域，并将该发热面分隔成互不通电的一输入区域与一输出区域，另一发热面上则形成一第二传导区域，其中，该输入区域通过对应该通孔电连接于该第二传导区域，该第二传导区域通过对应该通孔电连接于该输出区域。
较佳的是，前述的加热片的其中一该发热面上设有一第一绝缘区域，该第一绝缘区域包含多个第一臂部，各该多个第一臂部自该发热面的中央延伸至该发热面的周缘；所述加热片的另一该发热面上设有一第二绝缘区域，该第二绝缘区域包含多个第二臂部，各该多个第二臂部自该另一发热面的中央延伸至该另一发热面的周缘；于垂直所述加热片的该发热面方向上，其中一该第二臂部正对其中一该第一臂部，而其余该第二臂部与其余该第一臂部交错间隔；所述加热片的该发热面上，与其中一该第二臂部正对的该第一臂部的两侧形成互不通电的一输入区域及一输出区域，其余相邻的该第一臂部之间分别形成不通电的一第一传导区域，且各该第一传导区域与该输入区域及该输出区域互不通电；所述加热片的该另一发热面上，各两相邻的该第二臂部将该另一发热面分隔成互不通电的一第二传导区域；且于垂直所述加热片的该发热面方向上：该第一传导区域与两相邻的该第二传导区域重叠；其中一该第二传导区域除与所对应的该第一传导区域重叠外，更与该输入区域重叠；且其中一该第二传导区域除与所对应的该第一传导区域重叠外，更与该输出区域重叠。
较佳的是，前述的加热片中，该第一绝缘区域包含五个第一臂部，其中四个该第一臂部将所述加热片的该发热面分隔成四等份，而剩余 的一该第一臂部将其中一份进一步再分隔成二等份；该被进一步分隔成的二等份分别为该输入区域及该输出区域，而未被分隔的其余三份各为一第一传导区域；且第二绝缘区域包含四个第二臂部，其将所述加热片的该另一发热面分隔成四等份，该四等份分别为四个第二传导区域。
较佳的是，前述的加热片于外周面设有一输入端子与一输出端子，该输入端子电连接于该输入区域，该输出端子电连接于该输出区域。
本发明的陶瓷加热片结构主要是利用加热片两侧中的至少一侧设置电阻值较低的金属导电镀膜层，使加热片的至少一侧表面发热的温度较低，适用于作为组装的安装接触面或是提供低温加热的需求，而加热片的通孔中的发热内面上则设置电阻值较高的金属导电镀膜层，使加热片的通孔内部发热温度较高，提供高温加热的使用需求，由此因应不同区域的作用与温度需求来提供适当的温度，增加安装与加热使用上的安全性。
图1为本发明第一实施例的立体外观图。
图2为本发明第一实施例的另一立体外观图。
图3为本发明第一实施例的局部放大侧视剖面图。
图4为本发明第一实施例的局部放大端视剖面图。
图5为本发明第一实施例的电阻回路的电流示意图。
图6为本发明第二实施例的立体外观图。
图7为本发明第二实施例的另一立体外观图。
图8为本发明第二实施例的电阻回路的电流示意图。
图9为本发明第三实施例的立体外观图。
图10为本发明第三实施例的另一立体外观图。
图11为本发明第三实施例的电阻回路的电流示意图。
附图标记说明：
10、10A、10B加热片 11、11A、11B上发热面
111、121、131导电镀膜层 112、112A、112B输入区域
113、113B第一传导区域 114、114A、114B输出区域
12下发热面 120、120A、120B第二传导区域
13通孔 130发热内面
14T型绝缘区域 140第一臂部
15直线绝缘区域 150第二臂部
16输入端子 17输出端子
18A直线绝缘区域。
能详细了解本发明的技术特征及实用功效，并可依照说明书的内容来实现，兹进一步以如附图所示的较佳实施例，详细说明如后：
请参看图1与图2，本发明的陶瓷加热片结构的第一实施例具有一圆盘状的加热片10，其于相对两侧分别形成一上发热面11与一下发热面12，该加热片10上穿设有多个通孔13连通该上发热面11与该下发热面12，且该各通孔13的内周壁形成一发热内面130，该发热内面130分别电连接于该上发热面11与该下发热面12，而形成一电阻回路，该电阻回路的配置方式属于现有技术，本发明不限制该电阻回路为何种型态；
进一步，请参看图3与图4，该加热片10的该上发热面11与/或该下发热面12上设有电阻值为10欧姆以下的金属导电镀膜层111、121，该各通孔13的该发热内面130上则设有电阻值为20欧姆以上的金属导电镀膜层131；
该加热片10的该上发热面11上设有一第一绝缘区域，该第一绝缘区域包含多个第一臂部140，各该多个第一臂部140自上发热面11的中央延伸至该发热面的周缘；换句话说，第一绝缘区域是由上发热面11的中央向外延伸而呈一辐射状；
该加热片10的该下发热面12上设有一第二绝缘区域，该第二绝缘区域包含多个第二臂部150，各该多个第二臂部150自该下发热面12面的中央延伸至该另一发热面的周缘；换句话说，第二绝缘区域是由下发热面12的中央向外延伸而呈一辐射状；于垂直该加热片10的该上发热面11及该下发热面12的方向上，其中一该第二臂部150正对其中一该第一臂部140，换句话说，其中一该第二臂部150与其中一 该第一臂部140相重叠；其余该第二臂部150与其余该第一臂部140交错间隔，换句话说，两相邻的第二臂部150会有一第一臂部140；
通过上述结构，该上发热面11上，与其中一该第二臂部150正对的该第一臂部140的两侧分别形成互不通电的一输入区域112及一输出区域114，即，该与一该第二臂部150正对的第一臂部140与其所相邻的两第一臂部140之间分别形成该输入区域112及该输出区域114；其余相邻的该第一臂部140之间分别形成不通电的一第一传导区域113，且各该第一传导区域113与该输入区域112及该输出区域114互不通电；该下发热面12被各两相邻的该第二臂部150分隔成互不通电的一第二传导区域120；该第二传导区域120的数量比该第一传导区域113的数量多一个；
于垂直该加热片10的该上发热面11及该下发热面12的方向上，该第一传导区域113与两相邻的该第二传导区域120重叠；而相对地，其中一该第二传导区域120与所对应的一该第一传导区域113重叠外更与该输入区域112重叠，且另一该第二传导区域120除与所对应的另一该第一传导区域113重叠外更与该输出区域114重叠。因此，电流通的路径可依序为：输入区域112、一第二传导区域120、一第一传导区域113、另一第二传导区域120、另一第一传导区域113……又另一第二传导区域120、输出区域114。当第一臂部140及第二臂部150的数量越多，第一传导区域113及第二传导区域120的数量相应地也越多。
请参看图1与图2，如本发明的第一实施例中，该加热片10的该上发热面11的第一绝缘区域共具有三个第一臂部140，且其中两第一臂部140连成一直线而剩余的第一臂部140则沿垂直该两连成一线的两第一臂部140延伸，因此本发明的第一实施例中的第一绝缘区域为一T型绝缘区域14；当然，于其他实施例中，三第一臂部140间的夹角并不以此为限；绝缘区域14将该上发热面11分隔成互不通电的一输入区域112、一第一传导区域113、一输出区域114；该加热片10的该下发热面12的第二绝缘区域具有两连成一直线的第二臂部150，且对应T型绝缘区域14的中线位置形成一直线绝缘区域15，将该下发热面12分隔成左右互不通电的两第二传导区域120；
该加热片10于外周面可进一步设有一输入端子16与一输出端子17，该输入端子16电连接于该上发热面11的该输入区域112，该输出端子17电连接于该上发热面11的该输出区域114；
本发明的陶瓷加热片结构的第一实施例于使用时，请参看图3与图5，先将电流通过该输入端子16输入该上发热面11的该输入区域112，接着电流通过对应该输入区域112的该些通孔13传递至该下发热面12右侧的该第二传导区域120，接着再通过对应该第一传导区域113的该些通孔13传递至该上发热面11的该第一传导区域113，接着电流通过对应左侧的该第二传导区域120的该些通孔13传递至该下发热面12左侧的该第二传导区域120，然后通过对应该输出区域114的该些通孔13传递至该上发热面11的该输出区域114，最后再从该输出端子17流出，即完成一圈电阻回路的循环。
本发明的陶瓷加热片结构，由于该上发热面11与/或该下发热面12上设有电阻值为10欧姆以下的金属导电镀膜层111、121，因此，当电流通过该上发热面11与/或该下发热面12的各区域时，所产生的热能较少、温度较低，适用于组装时作为安装接触面，或是提供低温加热的需求，再者，由于该各通孔13的该发热内面130上设有电阻值为20欧姆以上的金属导电镀膜层131，因此，当电流通过该各通孔13的该发热内面130时，所产生的热能较多、温度较高，适用于加热通入吹风机的风或加热通入电暖炉的空气，可用以提供高温加热的使用需求。
此外，由于加热片10上所设计的电阻回路路径越长时，电流循环的路径也会越长，因此可有助于提升发热增温的效率，达到快速升温、加热温度高的功效。
请参看图6与图7，本发明的陶瓷加热片结构的第二实施例与第一实施例大致相同，但是加热片10A上的电阻回路型态不同，该加热片10A的该上发热面11A上的第一绝缘区域共具有两个第一臂部140，且两第一臂部140连成一直线，因此第一绝缘区域为延伸至周缘的一直线绝缘区域18A，将该上发热面11A分隔成互不通电的一输入区域112A与一输出区域114A；该加热片10A的该下发热面12A则无设置绝缘区域，而形成全面积的该第二传导区域120A，该加热片10A的该 输入端子16电连接于该上发热面11A的该输入区域112A，该输出端子17电连接于该上发热面11A的该输出区域114A，则该加热片10A上便形成第二实施例的电阻回路；
本发明的陶瓷加热片结构的第二实施例于使用时，请参看图8，先将电流通过该输入端子16输入该上发热面11A的该输入区域112A，接着电流通过对应该输入区域112A的该些通孔13传递至该下发热面12A的该第二传导区域120A，接着再通过对应该上发热面11A的该输出区域114A的该些通孔13传递至该上发热面11A的该输出区域114A，最后再从该输出端子17流出，即完成一圈电阻回路的循环。
请参看图9至图11，本发明的陶瓷加热片结构的第三实施例与第一、第二实施例大致相同，但是加热片10B上的电阻回路型态不同。该加热片10B的该上发热面11B上的第一绝缘区域共具有五个第一臂部140，其中四个该第一臂部140将该上发热面11B分隔成四等份，而剩余的一该第一臂部将140其中一份进一步再分隔成二等份；该被进一步分隔成的二等份分别为该输入区域112B及该输出区域114B，而未被分隔的其余三份各为一第一传导区域113B；该加热片10B的该下发热面12B上的第二绝缘区域包含四个第二臂部150，其将下发热面12B分隔成四等份，该四等份分别为四个第二传导区域120B；
因此，电流通的路径可依序为：输入区域112B、一第二传导区域120B、一第一传导区域113B、另一第二传导区域120B、另一第一传导区域113B……又另一第二传导区域120B、输出区域114B，完成一圈电阻回路的循环；
本发明的陶瓷加热片结构主要是利用加热片10两侧中的至少一侧设置电阻值较低的金属导电镀膜层111、121，使加热片10的至少一侧表面发热的温度较低，适用于作为组装的安装接触面或是提供低温加热的需求，而加热片10的通孔13中的发热内面130上则设置电阻值较高的金属导电镀膜层131，使加热片10的通孔13内部发热温度较高，提供高温加热的使用需求，由此因应不同区域的作用与温度需求来提供适当的温度，增加安装与加热使用上的安全性。
由上述内容可知，不同的修改及改变可在不脱离本发明实质的精神及新颖概念的范围下加以达成，并且本发明披露的特定实施例并非 用以限制本发明，此一披露内容包含落入权利要求书的范畴下的所有修改。
Claims (10)
- 一种陶瓷加热片结构，其具有一加热片，该加热片的相对两侧分别形成一发热面，并穿设有多个通孔连通两侧该发热面，且该各通孔的内周壁形成一发热内面，其中至少一侧的该发热面上设有电阻值为10欧姆以下的金属导电镀膜层，该各通孔的该发热内面上设有电阻值为20欧姆以上的金属导电镀膜层，且该各通孔的该发热内面分别电连接于两侧该发热面而形成一电阻回路。
- 如权利要求1所述的陶瓷加热片结构，其中，所述的加热片的相对两侧分别设有电阻值为10欧姆以下的金属导电镀膜层。
- 如权利要求1或2所述的陶瓷加热片结构，其中，所述的加热片的其中一发热面上设有自该发热面的中央延伸至周缘的一T型绝缘区域，并将该发热面分隔成互不通电的一输入区域、一第一传导区域、一输出区域，另一发热面则于对应该T型绝缘区域的中线位置设有自该另一发热面周缘的一侧延伸至周缘另一侧的一直线绝缘区域，并将该另一发热面分隔成互不通电的两第二传导区域，其中，该输入区域通过对应的该通孔电连接于其中一该第二传导区域，该其中一第二传导区域通过对应该通孔电连接于该第一传导区域，该第一传导区域通过对应该通孔电连接于另一该第二传导区域，该另一第二传导区域通过对应该通孔电连接于该输出区域。
- 如权利要求3所述的陶瓷加热片结构，其中，所述的加热片于外周面设有一输入端子与一输出端子，该输入端子电连接于该输入区域，该输出端子电连接于该输出区域。
- 如权利要求1或2所述的陶瓷加热片结构，其中，所述的加热片的其中一发热面上设有自该发热面周缘的一侧延伸至周缘另一侧的一直线绝缘区域，并将该发热面分隔成互不通电的一输入区域与一输出区域，另一发热面上则形成一第二传导区域，其中，该输入区域通 过对应该通孔电连接于该第二传导区域，该第二传导区域通过对应该通孔电连接于该输出区域。
- 如权利要求5所述的陶瓷加热片结构，其中，所述的加热片于外周面设有一输入端子与一输出端子，该输入端子电连接于该输入区域，该输出端子电连接于该输出区域。
- 如权利要求1或2所述的陶瓷加热片结构，其中：所述的加热片的其中一该发热面上设有一第一绝缘区域，该第一绝缘区域包含多个第一臂部，各该多个第一臂部自该发热面的中央延伸至该发热面的周缘；所述加热片的另一该发热面上设有一第二绝缘区域，该第二绝缘区域包含多个第二臂部，各该多个第二臂部自该另一发热面的中央延伸至该另一发热面的周缘；于垂直所述加热片的该发热面方向上，其中一该第二臂部正对其中一该第一臂部，而其余该第二臂部与其余该第一臂部交错间隔；所述加热片的该发热面上，与其中一该第二臂部正对的该第一臂部的两侧形成互不通电的一输入区域及一输出区域，其余相邻的两该第一臂部之间分别形成不通电的一第一传导区域，且各该第一传导区域与该输入区域及该输出区域互不通电；所述加热片的该另一发热面上，各两相邻的该第二臂部将该另一发热面分隔成互不通电的一第二传导区域；且其中，于垂直所述加热片的该发热面方向上：该第一传导区域与两相邻的该第二传导区域重叠；其中一该第二传导区域除与所对应的该第一传导区域重叠外，还与该输入区域重叠；且其中一该第二传导区域除与所对应的该第一传导区域重叠外，还与该输出区域重叠。
- 如权利要求7所述的陶瓷加热片结构，其中，所述的加热片于外周面设有一输入端子与一输出端子，该输入端子电连接于该输入区 域，该输出端子电连接于该输出区域。
- 如权利要求7所述的陶瓷加热片结构，其中：该第一绝缘区域包含五个第一臂部，其中四个该第一臂部将所述加热片的该发热面分隔成四等份，而剩余的一该第一臂部将其中一份进一步再分隔成二等份；该被进一步分隔成的二等份分别为该输入区域及该输出区域，而未被分隔的其余三份各为一第一传导区域；且第二绝缘区域包含四个第二臂部，其将所述加热片的该另一发热面分隔成四等份，该四等份分别为四个第二传导区域。
- 如权利要求9所述的陶瓷加热片结构，其中，所述的加热片于外周面设有一输入端子与一输出端子，该输入端子电连接于该输入区域，该输出端子电连接于该输出区域。
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| US20030183616A1 (en) * | 2002-03-28 | 2003-10-02 | Ngk Insulators, Ltd. | Ceramic heater |
| US20050242078A1 (en) * | 2002-04-24 | 2005-11-03 | Sumitomo Electric Industries, Ltd. | Ceramic Susceptor |
| CN2781702Y (zh) * | 2005-04-16 | 2006-05-17 | 包头稀土研究院 | 复合导电陶瓷加热片 |
| CN201673368U (zh) * | 2010-06-03 | 2010-12-15 | 刘江 | 陶瓷加热片 |
| CN204046845U (zh) * | 2014-06-13 | 2014-12-24 | 吴章杰 | 一种新型陶瓷加热片 |
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| Publication number | Priority date | Publication date | Assignee | Title |
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| US20030183616A1 (en) * | 2002-03-28 | 2003-10-02 | Ngk Insulators, Ltd. | Ceramic heater |
| US20050242078A1 (en) * | 2002-04-24 | 2005-11-03 | Sumitomo Electric Industries, Ltd. | Ceramic Susceptor |
| CN2781702Y (zh) * | 2005-04-16 | 2006-05-17 | 包头稀土研究院 | 复合导电陶瓷加热片 |
| CN201673368U (zh) * | 2010-06-03 | 2010-12-15 | 刘江 | 陶瓷加热片 |
| CN204046845U (zh) * | 2014-06-13 | 2014-12-24 | 吴章杰 | 一种新型陶瓷加热片 |
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