utilization. [1,3] However, harvesting such energy is rather challenging due to the limitations of traditional electromagnetic generators (EMGs), especially at low frequency. [4] How to harvest these types of energies with low cost, high stability, and high efficiency is the main barrier.A triboelectric nanogenerator (TENG) based on the friction-induced and electrostatic induction effects has been proved to be a powerful invention technology for converting random and low-frequency mechanical energy into electricity with unique merits of high power density, high efficiency, light weight, low cost, and simple fabrication. [1,4a,5] The TENG is much more effective than the EMG for harvesting energy in the frequency range of <5 Hz due to its distinct mechanism, which is ideally suited for our daily life and nature, such as the ocean waves. [4a,b] Recently, various TENGs with different structures and functions for blue energy have been developed, which can be roughly divided into two types: liquidsolid contact electrification TENGs [6] and fully enclosed solid-solid contact electrification TENGs. [7] However, robustness and packaging are critical factors for these TENGs toward practical applications, since the performance of TENG is greatly affected by environmental conditions, e.g., humidity. [1,5c] What's more, for fully enclosed solid-solid contact electrification TENG, it is difficult to disassemble after being enclosed, if there is something wrong with the devices. In addition, with the seawater immersion and corrosion, the package will also fail soon; once water infiltrates the device, it will be unable to work, especially for electrical devices.The newly invented triboelectric nanogenerator (TENG) is deemed to be a more efficient strategy than an electromagnetic generator (EMG) in harvesting low-frequency (<2 Hz) water wave energy. Various TENGs with different structures and functions for blue energy have been developed, which can be roughly divided into two types: liquid-solid contact electrification TENGs and fully enclosed solid-solid contact electrification TENGs. Robustness and packaging are critical factors in the development of TENGs toward practical applications. Furthermore, for fully enclosed TENGs, the requirements and costs of packaging are very high, and they can difficult to disassemble after enclosed, if there is something wrong with the devices. Herein, a nonencapsulative pendulum-like paper based hybrid nanogenerator for energy harvesting is designed, which mainly consists of three parts, one solar panel, two paper based zigzag multilayered TENGs, and three EMG units. This unique structure reveals the superior robustness and a maximum peak power of zigzag multilayered TENGs up to 22.5 mW is realized. Moreover, the device can be used to collect the mechanical energy of human motion in hand shaking. This work presents a new platform of hybrid generators toward energy harvesting as a portable practical power source, which has potential applications in navigation and lighting.