Huawei Technologies Co., Limited

Honor Device Co., Ltd.

Changjiang Survey Planning Design and Research Co., Ltd.

Guangdong Midea Refrigeration Appliances Co., Ltd.

Zhiguo Zhang

Wei Li

Haitao Zhen

Yingchun Zhang

Bin Wang

Tao Huang

Hua Yin Huang

Jun Yang

Jianliang Wang

Quanming Li

Guo Yang

Nanbo Kang

Chao Li

Qi Chen

Lei Wang

Jian Shi

Jinbo Li

Qigui Yang

Xin Zhao

Lijun Su

Feng Li

Xinqiang Niu

Wenming Shi

Qiang Li

Xuehong Yang

Teng Long

Baixing Liu

Lixin Liu

Haibo Liu

Wenduan Qi

Lianghong Zhu

Xiaohu Liu

Jinjing Jiang

Qiangbing Zeng

Xinyun Pan

Shuisheng Zheng

Shoumin Chan

Haisheng Lu

Canbin Huang

Ling Luo

Liujun Zou

Yang Luo

Zhijun Zhang

Zhengjian Miu

Chunyang Chen

Tieling Tao

Yanlei Wan

Baochun Chen

Xiaoqing Li

Qiangbin Zeng

Shoumin Chen

Haisheng Li

Hua Huang

Jianli Sun

A thermal system includes a system component, a working medium, a second-level thermal component, and a working medium transmission component. The system component includes a first-level thermal component and a working medium driver. The working medium driver is configured to drive the working medium to flow through a primary flow-through structure, a secondary flow-through structure, and a transmission channel in the working medium transmission component, and the thickness of the working medium driver is less than or equal to 5 mm.

Thermal component and electronic device

A folding device and a heat dissipation apparatus, where the folding device includes a heat collection element, including a heat collection plate and a first shaft sleeve, where a first end of the heat collection plate is in contact with a heat source in a first folding part, and a second end of the heat collection plate is coupled to an outer wall of the first shaft sleeve, the first shaft sleeve is sleeved on a rotating shaft, and a third end of the cooling element is in contact with the rotating shaft, and a fourth end of the cooling element is in contact with a heat dissipation device in a second folding part.

Folding device and heat dissipation apparatus

A centrifugal fan includes a housing configured to accommodate an impeller. The impeller rotates relative to the housing. A flow channel that cooperates with the impeller is disposed in the housing. The flow channel includes a pressurization area, in which a static pressure and a flow velocity of an air flow are gradually increased along a rotation direction of the impeller. However, an air inlet is disposed on the housing, and there is a specific gap between the impeller and the air inlet. As a result, when air flows through the pressurization area, there is a specific amount of leakage through the gap. Therefore, an air baffle ring is disposed in the centrifugal fan provided in this application.

Centrifugal fan and terminal

Embodiments of this application disclose a housing structure and a terminal device. The housing structure includes a bottom shell and a lifting shell. A first end of the bottom shell is connected to a first end of the lifting shell, a second end of the bottom shell and a second end of the lifting shell are spaced by a first distance, and space between the bottom shell and the lifting shell forms a heat dissipation channel. A heat dissipation panel is disposed on the bottom shell, a first surface of the heat dissipation panel is in contact with a heat emitting component, and a second surface of the heat dissipation panel is located in the heat dissipation channel. Therefore, the housing structure provided in the embodiments of this application can better dissipate heat for the heat emitting component in the bottom shell.

Housing structure and terminal device

A heat dissipation apparatus includes a heat dissipation panel built in the electronic device. The heat dissipation panel includes a first heat conducting layer, including a first surface and a second surface. The first surface is a surface exposed to the outside when the first heat conducting layer is bent. The second surface is a surface opposite to the first surface. A first region on the first heat conducting layer is used to absorb heat released by a heat emitting component, and conduct the heat to a second region on the first heat conducting layer, to dissipate the heat. The heat dissipation panel also includes first flexible layer, including a third region. The third region adheres to a position that is on the second surface of the first heat conducting layer and that corresponds to a bending region.

Heat dissipation panel, heat dissipation apparatus, and electronic device

A mobile terminal includes a circuit board, a heat emitting element disposed on the circuit board, a shielding can, and a middle frame, where the shielding can is connected to the circuit board, and forms a shielding space together with the circuit board; the heat emitting element is accommodated in the shielding space; the circuit board is disposed on one side of the middle frame; the middle frame is provided with an accommodating space; and the shielding can includes a top and a bottom that are disposed opposite to each other, where the bottom is configured to be connected to the circuit board, and the top is located above the heat emitting element and extends to the accommodating space. The present disclosure further provides a heat dissipation and shielding structure. The present disclosure helps make a mobile terminal and a heat dissipation and shielding structure lighter and thinner.

Mobile terminal and heat dissipation and shielding structure

A heat dissipation apparatus applied to a terminal device includes a phase change material (PCM) and a heat transfer unit. The heat transfer unit is in contact with the PCM to conduct heat of the terminal device to the PCM. Because the PCM maintains a temperature substantially unchanged during a phase change, a temperature of the heat dissipation apparatus is not excessively high while heat is absorbed.

Heat dissipation apparatus and terminal device having same

A construction layout for underground caverns in a nuclear island powerhouse of an underground nuclear power plant, including: two primary caverns accomodating nuclear reactor powerhouses, combined caverns, electric powerhouse caverns, pressure relief caverns, a first primary traffic tunnel, a second primary traffic tunnel, a third primary traffic tunnel, a top adit system, a ground adit system, secondary traffic tunnels, and a side traffic tunnel. Each combined cavern and each electric powerhouse cavern are disposed at two sides of each primary cavern, respectively. Two combined caverns are in end-to-end connection and the arrangement direction of the two combined caverns are in parallel to the connecting line of the medial axes of the two primary caverns. Each pressure relief cavern is disposed between each combined cavern and a corresponding electric powerhouse cavern.

Construction layout for underground caverns in nuclear island powerhouse of underground nuclear power plant

A heat-dissipation and shielding structure, including a shielding case, a thermal pad, and a heat sink. The bottom of the shielding case is connected to a circuit board used to carry a heat emitting element, the heat sink is disposed on the top of the shielding case, the top of the shielding case is provided with an opening, the thermal pad runs through the opening, a bottom surface of the thermal pad is attached to the heat emitting element, and a top surface of the thermal pad is attached to the heat sink; and the heat-dissipation and shielding structure further includes a metal spring plate, where the metal spring plate is located on a periphery of the opening and encircles the opening, and the metal spring plate is elastically connected between the shielding case and the heat sink.

Heat-dissipation and shielding structure and communications product

The present disclosure provides an energy saving controlling method of an inverter air-conditioner, including: a main controlling unit of the inverter air-conditioner receiving settings of an energy consumption and an operating time; according to the set energy consumption and the set operating time, calculating or retrieving operational parameters of the inverter air-conditioner based on that the inverter air-conditioner consumes the set energy consumption in the set operating time; and controlling the inverter air-conditioner to operate according to the calculated or retrieved operational parameters. By receiving the settings of the energy consumption and the operating time from user which can be combined with the target indoor temperature, and calculating or retrieving the corresponding operational parameters of the inverter air-conditioner, the inverter air-conditioner can operate according to the operational parameters, which allows the user to control the energy consumption and the using cost of the inverter air-conditioner directly and accurately.

Energy saving controlling method and device of inverter air-conditioner

Growing community of inventors

Wuhan, China

Zhiguo Zhang