201009211 - …久代表圏: (一)本案指定代表圖為:第(4)圖。 (j)本代表圖之元件符號簡單說明: 10· 消能結構桿件 . 20·桿狀消能元件 201. 連結部 202. 直線部 2〇3.漸縮部 205·變形預留空間 3〇.側撐件 31.圍束件 八、本案若有化學式時,請揭示最缺示發騎㈣化學式: 九、發明說明: 【發明所屬之技術領域】 本發明係-種消能結構桿件;__ 一般建築物構造 之防止振動或震動之裝置,該裝置係藉由桿狀消能元件中設有斷 面積較小之直線部,以侧撐件及圍束件包覆組裝方式提供直線部 側向支推,使直線部於拉伸或壓縮時可充分變形而吸收能量,避 免承受轴向壓力時產生挫屈破壞之行為。 【先前技術】 如第1圖及第2圖所示為習知之挫屈束制斜撐(〇1),將具有 中央斷面積較小結構之板狀消能元件(〇2)設置於圍束元件(〇4) 中,再以混凝土(03)澆置於圍束元件(〇4)與消能元件(〇2)之間, 待混凝土(03)固化後即可提供良好之侧撐與圍束之效果,使消能 元件(02)承受軸向壓力作用時,可避免產生挫屈破壞之行為而喪 失變形消能之功效。 4 201009211【發明内容】 本發明之雜結構桿件巾設有桿狀雜元件,桿狀消能元 為具有不同大小斷面積之桿狀結構,兩端為斷面積較大之 ' 部’中央為斷面積較小之直線部,桿狀·元件之直線部設有& . 撐件保持貼合分離之狀態,側撐件與桿狀消能元件之連結部之間 保有變形預留空間,圍束件以夾合或套入之方式將桿狀消能元 及側撐件組裝連結,桿狀消能元件一端之連結部相對另一端連結 部移動時,可使桿狀消能元件之直線部產生拉伸或壓縮之變形了 罐件與®絲可祕直_紙續,使直料於拉伸或壓縮 時可充分變形而吸收能量,避免承受軸向壓力時產生挫屈破 行為。 【實施方式】 如第3圖所示之消能結構桿件(10)中,桿狀消能元件(2〇)為 ,有不同大小斷面積之®桿結構,兩端騎面積較大之連結部 (201),中央為斷面積較小之直線部(2〇2),連結部(2〇1)與直線 ,(202)之P攸有細部⑽)連結,細部⑽)翻由連結部 (201)以直線或曲線方式内縮至直線部(2〇2),轴向力量由連結部 (210)傳遞至直線部(2〇2)時,可避免產生應力集中之情形,以圍 束件(31)套入桿狀消能元件(20)後,於桿狀消能元件(2〇)與圍束 參 件(31)之間填充灌入加勁填充材(33),加勁填充材(33)可為混凝 =水泥砂漿或塑膠材質或高分子材f或彈性材質或玻璃纖維 複口材料或碳纖維複合材料,待加勁填充材(33)固化後即可形成 側撐件(30),側撐件(3〇)與桿狀消能元件⑽之直線部(⑽保 ,貼合分離之狀態,側撐件(30)與桿狀消能元件(2〇)之漸縮部 (203)之間保有變糊留空間⑽5),避免桿狀雜元件(2〇)產 生拉伸或壓縮變形時與侧撐件(30)產生碰撞,侧撐件(3〇)與圍束 件(31)提供直線部(2〇2)側向支擇之功能,使直線部⑽2)於拉伸 或壓縮時可充分魏而吸她量,避免承受軸向壓力時產生挫屈 破壞之行為。 圍束件可為平板或L形板或门形板或τ形板或π形板或η形 5 杯、T字板或"形板或波浪板或4折c形板或6折c形 板或〈形板或〔形板或弧形板或方管或多邊形管或圓管, 種以上上述之型式搭配組合而成之單元。 〆 .於桿狀消能祕⑽上,桿 * =能表面可塗佈或对隔離件隔離加勁填充材 賴或娜贼冑分伸贿絲性漆膜或 布料或高分子材料板或保麗龍板或纖維 峨椒蝴峨概或低摩擦 ^ ΐϊ加所形成之讎件⑽)具有更加之驗,可於 e t 件(20)與圍束件(31)之間設置鋼筋或鋼筋籠或型 覆固定鋼筋或鋼筋籠或型鋼,鏑筋截由縱向 鋼肋及橫向箍助,或縱向鋼筋及螺旋箍筋組合而成;型 ^ L形板或Π形板或Τ形板或Π形板或Η形板或α形板或十字 =△形板或波浪板或4折c形板或6折c形板或〈形板或〔形 J或弧形板或方管或多邊形管或·,種以上上述之型式 搭配組合而成之單7^。 如第4圖所示之消能結構桿件⑽中,側推件 片所組合而成之型式。 、衣 帛5圖所示為消能結構桿件(10)之圍束件(31)内部填充灌入 ❹ 加勁f充材⑽f型式,可提高圍束件(31)側向支揮之勁度。 第6圖所示之消能結構桿件⑽之圍束件(31)為方管 式。 第7圖所不之消能結構桿件(1〇)之桿狀消能元件(2〇)為方形 :牛之巧式,圍束件(31)則由4組桿件以夾合之方式將侧撐件(3 及桿狀消能元以螺栓鎖固方式組裝包覆而成。 板組消能結構桿件〇〇)之圍束件(31)使用2組孤形 —第9圖所示為消能結構桿件⑽之圍束件(31)使 定夾(32)組合連結之型式。 第10圖所示之消能結構桿件(1〇)之側撐件(3〇)為同時包覆 6 201009211扣〇2)與連結部(2〇1)之型式,使桿狀消能元件⑽ 佳之側向支撐勁度。 〃 第11圖所示之消能結構桿件(1〇)中,桿狀消能元件(洲)與 側撐件(30)之間設有凸榫(401)與凹槽(4〇2)之機構,以凸 、 . 與凹槽(402)互嵌之方式組裝連結。 消能結構桿件(10)以變形方式來吸收能量,但是當桿狀消能 元件(20)變形量過大,超出極限強度時則會發生斷裂之情形,易 巧變形量已經過大之建築結構瞬間失去一支撐力,而導致變形量 瞬間增加造成建築結構崩塌,為防止這種意外發生,消能結構桿 件(10)設有限動機構(40),使桿狀消能元件(20)之連結部可做有 限度之别後拉伸或壓縮之移動,限動機構(40)為凸榫與凹槽之機 構中,凹槽(402)較凸榫(401)寬度為長,凸榫(4〇1)喪人凹槽⑽2) 内可作有限度之前後移動,凸榫(4〇1)與凹槽(4〇2)之間設有緩衝 墊(403),可提供消能結構桿件(10)變形量過大時之緩衝作用, 緩衝墊材質可為橡膠或塑膠材料或高分子材料或高阻尼材料或 黏彈性材料或彈簧或液體墊或氣體墊或阻尼裝置。 第12圖所示之消能結構桿件(10)為桿狀消能元件(2〇)與侧 撐件(30)之間設有扣件(4〇4)與凹槽(402)機構之型式。 第13圖所示之消能結構桿件(10)之限動機構(4〇)為使用螺 栓在長條孔(405)内作有限度之前後移動之型式。 ® 由材料力學之理論與試驗可知,受到圍束作用之桿件於承受 轴向壓力時,強度與勁度可大幅提昇,但在消能結構桿件(1〇) 中’桿狀消能元件(20)若受到侧撐件(30)與圍束件(31)之圍束作 用’因無側向變形之空間,其直線部(2〇2)之軸壓強度與勁度將 大幅提昇,而無法有效產生塑性變形達到消能之功效,為避免桿 狀消能元件(20)產生挫屈破壞,同時又可有效產生塑性變形,如 第14圖所示,側撐件(3〇)之表面設有凸環或凸點(53)之構造, 以凸環或凸點(53)與直線部(202)局部接觸之方式,既可提供直 線部(202)侧向支撐避免發生挫屈破壞,又可提供直線部(2〇2)侧 向變形之空間,使直線部(202)可充分產生拉伸及壓縮之變形。 第15圖及第16圖所示為側撐件(3〇)使用滑動機構(50)之型 7 ’Ci(50)由滑動環(51)與彈性間隔器(7〇)所組成。 .磨面板滑_^:板r給 有滑s及作第為動機細)之滑動丨)表面設 有滑=)====)犧環(51)表面設 & 觸〇可為滾柱或以ί:凹槽内設有滾動子(61) ’ 撞,滾動子㈣可為雜持4距離不碰 ί 狀消能元件(2〇)為中空圓桿之型式。 式桿狀消能之較佳型式,串聯 元件為消能結構桿件(1〇)中同時設有多組桿狀消能 之較^^3_示_結構料⑽安裝於建築結構 用實;Lf。圖所不為消能結構桿件⑽安裝於桁架結構之較佳應 8 201009211【圖式簡單說明】 第1圖.習知之挫屈束制斜撐 第2圖.習知之挫屈束制斜撐 第3圖.消能結構桿件之較佳型式1工程視圖 第4圖.消能結構桿件之較佳型式2工程視圖 . 第5圖.消能結構桿件之較佳型式3工程視圖 第6圖.消能結構桿件之較佳型式4工程視圖 第7圖.消能結構桿件之較佳型式5工程視圖 第8圖.消能結構桿件之較佳型式6工程視圖 第9圖.消能結構桿件之較佳型式7工程視圖 第10圖.消能結構桿件之較佳型式8工程視圖 第11圖.消能結構桿件之較佳型式9工程視圖 ^第12圖.消能結構桿件之較佳型式10工程視圖 V第13圖.消能結構桿件之較佳型式11工程視圖 第14圖.消能結構桿件之較佳型式12工程視圖 第15圖.消能結構桿件之較佳型式13工程視圖 第16圖.消能結構桿件之較佳型式14工程視圖 第17圖.消能結構桿件之較佳型式15工程視圖 第18圖.消能結構桿件之較佳型式16工程視圖 第19圖.消能結構桿件之較佳型式17工程視圖 第20圖.消能結構桿件之較佳型式18工程視圖 第21圖.消能結構桿件之較佳型式19工程視圖 第22圖.消能結構桿件之較佳型式20工程視圖 ^第23圖.消能結構桿件之較佳型式21工程視圖 V第24圖.消能結構桿件之較佳型式22工程視圖 第25圖.消能結構桿件之較佳型式23工程視圖 第26圖.消能結構桿件之較佳型式24工程視圖 第27圖.消能結構桿件之較佳型式25工程視圖 第28圖.消能結構桿件之較佳型式26工程視圖 第29圖.消能結構桿件之較佳型式27工程視圖 第30圖·消能結構桿件之較佳應用實施例工程視圖 第31圖.消能結構桿件之較佳應用實施例工程視圖 第32圖.消能結構桿件之較佳應用實施例工程視圖 9 201009211多元件符號說明】201009211 - ... for a long time: (1) The representative representative of the case is: (4). (j) A brief description of the symbol of the representative figure: 10· Energy dissipating structure rod. 20· Rod-shaped energy dissipating element 201. Connecting part 202. Straight line part 2〇3. Tapering part 205· Deformation reserved space 3〇 Side support member 31. Peripheral member 8. If there is a chemical formula in this case, please disclose the most lacking display ride. (4) Chemical formula: 9. Invention: [Technical field of invention] The present invention is a kind of energy dissipation structure rod; __ A device for preventing vibration or vibration in a general building structure. The device is provided with a straight portion having a small sectional area in a rod-shaped energy dissipating member, and is provided with a side portion and a surrounding member to provide a straight portion side. To push, the straight portion can be fully deformed to absorb energy when stretched or compressed, and avoid the behavior of frustration damage when subjected to axial pressure. [Prior Art] As shown in Figs. 1 and 2, a conventional buckling beam bracing (〇1) is provided, and a plate-shaped energy dissipating member (〇2) having a structure having a small central sectional area is disposed in the surrounding bundle. In the component (〇4), concrete (03) is poured between the surrounding component (〇4) and the energy dissipating component (〇2). After the concrete (03) is cured, it can provide good side support and circumference. The effect of the bundle is such that when the energy dissipating component (02) is subjected to axial pressure, the effect of frustration damage can be avoided and the deformation energy dissipation effect is lost. 4 201009211 [Summary of the Invention] The miscellaneous structure of the present invention is provided with a rod-shaped miscellaneous element, and the rod-shaped energy dissipating element is a rod-shaped structure having different sectional areas, and the ends of the 'parts' having a large sectional area at both ends are The straight portion having a small sectional area is provided with a linear portion of the rod-shaped member and the member. The support member is kept in a state of being fitted and separated, and a space for deformation is reserved between the joint portion of the side support member and the rod-shaped energy dissipation member. The beam member is assembled or coupled by sandwiching or nesting, and the linear portion of the rod-shaped energy dissipating member can be assembled when the connecting portion of one end of the rod-shaped energy dissipating member moves relative to the other end connecting portion. The deformation or compression of the can and the wire can be straightforward, so that the material can be fully deformed to absorb energy when stretched or compressed, and to avoid the occurrence of frustration when subjected to axial pressure. [Embodiment] As shown in Fig. 3, in the energy dissipating structure rod (10), the rod-shaped energy dissipating element (2〇) is a rod structure having different sectional areas, and the joint area at both ends is larger. In the portion (201), the center is a straight portion (2〇2) having a small cross-sectional area, the connecting portion (2〇1) is connected to the straight line, the P攸 having the thin portion (10) is connected, and the detail (10) is turned over by the connecting portion ( 201) Retracting to a straight portion (2〇2) in a straight line or a curved manner, and when the axial force is transmitted from the joint portion (210) to the straight portion (2〇2), stress concentration can be avoided, and the bundle member can be avoided. (31) After inserting the rod-shaped energy dissipating element (20), filling the stiffening filler (33) between the rod-shaped energy dissipating element (2〇) and the surrounding beam component (31), and stiffening filler (33) ) can be coagulation = cement mortar or plastic material or polymer material f or elastic material or glass fiber composite material or carbon fiber composite material, after the stiffening filler (33) is solidified, the side support member (30) can be formed. a straight portion of the support member (3) and the rod-shaped energy dissipating member (10) ((10), the state of being bonded and separated, the side support member (30) and the tapered portion (203) of the rod-shaped energy dissipating member (2) There is room for change (10) 5) To prevent the rod-shaped miscellaneous element (2〇) from colliding with the side support member (30) when the tensile or compressive deformation occurs, the side support member (3〇) and the bundle member (31) provide a straight portion (2〇2) lateral direction. The function of the choice is such that the straight portion (10) 2) can sufficiently absorb the amount when it is stretched or compressed, and avoids the behavior of frustration damage when subjected to axial pressure. The bundle member may be a flat or L-shaped plate or a door plate or a τ-shaped plate or a π-shaped plate or an n-shaped 5 cup, a T-shaped plate or a "shaped plate or wave plate or a 4-fold c-shaped plate or a 6-fold c-shaped Plate or <shaped plate or [shaped plate or curved plate or square tube or polygonal tube or round tube, a combination of the above types. 〆. On the rod-shaped energy-eliminating secret (10), the rod * = can be coated on the surface or the insulation of the insulation is filled with the filler material or the thief 胄 胄 贿 贿 性 性 性 性 性 或 或 或 或 或 或 或 或Plate or fiber 峨 峨 峨 或 或 或 或 或 或 或 或 或 或 或 或 或 或 或 或 或 或 或 或 或 或 或 或 具有 具有 具有 具有 具有 具有 具有 具有 具有 具有 具有 具有 具有 具有 具有 具有 具有 具有 具有 具有 具有 具有 具有 具有Fixed steel bars or steel cages or sections, which are made up of longitudinal steel ribs and transverse hoops, or longitudinal steel bars and spiral stirrups; type L-shaped plates or slabs or slabs or slabs or slabs Shaped or alpha-shaped plate or cross=△-shaped plate or wave plate or 4-fold c-shaped plate or 6-fold c-shaped plate or <shaped plate or [shaped J or curved plate or square tube or polygonal tube or The above type is combined with a single 7^. In the energy dissipating structure member (10) shown in Fig. 4, the side pusher pieces are combined. Figure 5 shows the energy-filled structural member (10) of the surrounding member (31) filled with filling ❹ stiffening f filling material (10) f-type, which can improve the lateral support of the surrounding member (31). The bunching member (31) of the energy dissipating structural member (10) shown in Fig. 6 is a square tube type. The rod-shaped energy dissipating component (2〇) of the energy dissipating structural member (1〇) in Fig. 7 is square: the cow is clever, and the coaming member (31) is sandwiched by 4 sets of rods. The side struts (3 and the rod-shaped energy dissipating elements are assembled by bolting and fixing. The bundle members (31) of the slab energy dissipating structure 〇〇) use two sets of orphans - Figure 9 Shown as a bunching member (31) of the energy dissipating structural member (10), the clips (32) are combined and joined. The side support member (3〇) of the energy dissipating structure rod member (1〇) shown in Fig. 10 is a type of the cover member 6) and the joint portion (2〇1) at the same time, so that the rod-shaped energy dissipating member (10) Good lateral support stiffness.中 In the energy dissipation structure rod (1〇) shown in Fig. 11, between the rod-shaped energy dissipating element (continent) and the side support member (30), there are convex ridges (401) and grooves (4〇2) The mechanism is assembled in a manner that the convex and the groove are interlaced with the groove (402). The energy dissipating structural member (10) absorbs energy in a deformed manner, but when the deformation amount of the rod-shaped energy dissipating member (20) is too large, a fracture occurs when the ultimate strength is exceeded, and the building structure is too large. Losing a supporting force, causing the deformation amount to increase instantaneously, causing the building structure to collapse. To prevent such accidents, the energy dissipating structural member (10) is provided with a limiting mechanism (40) to link the rod-shaped energy dissipating component (20). The portion can be stretched or compressed after a limited degree of movement, and the limiting mechanism (40) is a mechanism for the tenon and the groove, and the groove (402) has a longer width than the tenon (401), and the tenon (4) 〇1) The recessed groove (10)2) can be moved before and after the limit, and a cushion (403) is provided between the tenon (4〇1) and the groove (4〇2) to provide the energy dissipating structure (10) When the deformation amount is too large, the cushion material may be rubber or plastic material or polymer material or high damping material or viscoelastic material or spring or liquid pad or gas cushion or damping device. The energy dissipating structure rod member (10) shown in Fig. 12 is provided with a fastener (4〇4) and a groove (402) mechanism between the rod-shaped energy dissipating member (2〇) and the side support member (30). Type. The stopper mechanism (4〇) of the energy dissipating structure member (10) shown in Fig. 13 is a type in which the bolt is moved before and after a limited degree in the elongated hole (405). ® According to the theory and experiment of material mechanics, the strength and stiffness of the rod subjected to the surrounding force can be greatly improved when subjected to the axial pressure, but in the energy dissipating structural member (1〇), the rod-shaped energy dissipating element (20) If the side brace (30) and the surrounding member (31) are subjected to the surrounding force, the axial compression strength and stiffness of the straight portion (2〇2) will be greatly improved due to the space without lateral deformation. However, it is impossible to effectively produce plastic deformation to achieve energy dissipation, in order to avoid the occurrence of frustration damage of the rod-shaped energy dissipating component (20), and at the same time, plastic deformation can be effectively produced, as shown in Fig. 14, the side support member (3〇) The surface is provided with a structure of a convex ring or a bump (53), and the convex portion or the convex portion (53) is in partial contact with the straight portion (202), thereby providing the lateral portion (202) lateral support to avoid frustration damage. Further, a space for lateral deformation of the straight portion (2〇2) can be provided, so that the straight portion (202) can sufficiently deform the tensile and compression. Fig. 15 and Fig. 16 show that the side support member (3〇) is composed of a slide ring (51) and a resilient spacer (7〇) using a type of sliding mechanism (50) 7'Ci (50). Grinding panel sliding _^: plate r to slide s and making the first motive) sliding surface) slip =) ====) sacrificial ring (51) surface set & Or in ί: there is a rolling element (61) in the groove, and the rolling element (4) can be a type of hollow round rod. The preferred type of rod-shaped energy dissipation, the series element is an energy-dissipating structure rod (1〇) which is provided with a plurality of sets of rod-shaped energy dissipation at the same time, the ^^3_showing_structure material (10) is installed on the building structure; Lf. Figure 2 is not the best structure for the energy dissipation structure (10) installed on the truss structure. 201009211 [Simple description of the drawing] Figure 1. The frustration of the frustum of the conventional figure. Figure 2. The frustration of the frustum Figure 3. Engineering view of the energy-dissipation structure of the beam. Figure 4. Engineering view of the energy-dissipation structure. Figure 5. Engineering view of the energy-dissipation structure. Figure 6. Engineering view of the energy-dissipating structure of the beam. Figure 7. Engineering view of the energy-dissipation structure. Figure 5. Engineering view. Figure 8. Engineering view of the energy-dissipation structure. Figure 7 is a view of the structure of the energy-dissipating structure. Figure 10. Engineering view of the energy-dissipation structure. Figure 11. Engineering view of the energy-dissipation structure. Figure 10 of the structure of the energy dissipating structure. Figure 13 is a view of the structure of the energy dissipating structure. Fig. 14 is a view of the structure of the dissipative structure. Figure 13 is a view of a preferred type of structural member. Fig. 16 is a view of a preferred embodiment of the energy dissipating structure. Figure 17 is a view of the structure of the energy dissipating structure. Figure 15 Engineering view Figure 18. Preferred version of the energy-dissipating structure of the beam 16 Engineering view Figure 19. Figure 17 of the energy-dissipation structure of the beam Figure 20 Figure. Figure 18 of the energy-dissipation structure Engineering view Figure 21. Preferred version of the energy-dissipation structure. Figure 19 Engineering view. Figure 20. Engineering diagram of the energy-dissipation structure. Figure 23. Figure 23. Figure 21 of the structure of the energy-dissipation structure. View V Figure 24. Preferred version of the energy-dissipating structure member 22 Engineering view Figure 25. Figure 23 of the energy-dissipating structure of the beam. Figure 26. Engineering view of the energy-dissipating structure. Figure 27. Engineering view of the energy-dissipating structural member. Figure 25. Engineering view. Figure 28. Engineering view of the energy-dissipating structure. Figure 29. Engineering view of the energy-dissipating structure. Fig. 31. Preferred application embodiment of the energy dissipating structure member. Engineering view Fig. 32. Preferred application example of the energy dissipating structure member Engineering view 9 201009211 multi-component symbol description]
01. 習知之挫屈束制斜撐 02. 習知之消能元件 03. 混凝土 04. 圍束元件 10. 消能結構桿件 20. 桿狀消能元件 201. 連結部 202. 直線部 203. 漸縮部 204. 串接部 205. 變形預留空間 21. 串聯式桿狀消能元件 30. 側撐件 31. 圍束件 32. 固定夾 33. 加勁填充材 34. 連結座 40. 限動機構 401. 凸榫 402. 凹槽 403. 緩衝墊 404. 扣件 405. 長條孔 50. 滑動機構 51. 滑動環 52. 滑動塾 53. 凸環或凸點 60. 滾動機構 61. 滾動子 62. 滚動子保持器 70. 彈性間隔器 80. 建築結構桿件 90. 桁架結構01. The frustration of the conventional buckling 02. The conventional energy dissipating component 03. Concrete 04. The bunching element 10. The energy dissipating structural member 20. The rod-shaped energy dissipating element 201. The connecting portion 202. The straight portion 203. Constriction 204. Casing 205. Deformation reserve 21. Tandem rod-shaped energy dissipating element 30. Side struts 31. Peripheral member 32. Retaining clip 33. Stiffening filler 34. Connecting seat 40. 401. Concave 402. Groove 403. Cushion 404. Fastener 405. Sliver 50. Sliding mechanism 51. Sliding ring 52. Slide 塾 53. Coil or bump 60. Rolling mechanism 61. Roller 62. Roller holder 70. Elastic spacer 80. Building structure rod 90. Truss structure