Abstract: A heat dissipating device includes a front-placed air duct (1) and a rear-placed air duct (2) that are sequentially arranged in the direction of the heat dissipating gas flow of the heat dissipating device and are communicated. First heat dissipating elements (4) and second heat dissipating elements (5) are located in different front-placed air sub-ducts (3) of the front-placed air duct (1), the heat-dissipation amount of the first heat dissipating elements (4) is greater than that of the second heat dissipating elements (5), and a blocking plate (6) is provided within a front-placed air sub-duct (3) and used for reducing the magnitude of the heat dissipating gas flow of the front-placed air sub-duct (3). A third heat dissipating element (7) is provided inside the rear-placed air duct (2), and a flow guiding hood (8) is provided between the front-placed air duct (1) and the rear-placed air duct (2).

Abstract: A heat dissipating device includes a front-placed air duct (1) and a rear-placed air duct (2) that are sequentially arranged in the direction of the heat dissipating gas flow of the heat dissipating device and are communicated. First heat dissipating elements (4) and second heat dissipating elements (5) are located in different front-placed air sub-ducts (3) of the front-placed air duct (1), the heat-dissipation amount of the first heat dissipating elements (4) is greater than that of the second heat dissipating elements (5), and a blocking plate (6) is provided within a front-placed air sub-duct (3) and used for reducing the magnitude of the heat dissipating gas flow of the front-placed air sub-duct (3). A third heat dissipating element (7) is provided inside the rear-placed air duct (2), and a flow guiding hood (8) is provided between the front-placed air duct (1) and the rear-placed air duct (2).

Abstract: The disclosure relates to bifunctional KRAS-modulating compounds having the structure K-L-T, where K is a targeting group that binds specifically to a KRAS protein (mutant or wild-type), T is an E3-ligase binding group, and L is absent or is a bivalent linking group that connects K and T together via a covalent linkage. Compounds and pharmaceutical compositions thereof can promote degradation of KRAS protein (mutant or wild-type) in a cell and are thus useful for treating, inhibiting, and preventing KRAS-associated diseases, disorders and conditions, including cancers.

Abstract: The disclosure relates to KRAS inhibitor compounds having the structure of Formula (I), pharmaceutical compositions thereof, and methods of use thereof for inhibiting, treating, and/or preventing KRAS-associated diseases, disorders and conditions.

Abstract: The disclosure relates to bifunctional KRAS-G12D-modulating compounds having the structure W-L-T, where W is a targeting group that binds specifically to KRAS-G12D protein, T is an E3-ligase binding group, and L is absent or is a bivalent linking group that connects W and T together via a covalent linkage. Compounds and pharmaceutical compositions thereof can promote degradation of the KRAS-G12D protein in a cell and are thus useful for treating, inhibiting, and preventing KRAS-G12D-associated diseases, disorders and conditions, including cancers.

Abstract: A siphon-based heat sink for a server comprises a heat absorbing mechanism, a siphon mechanism, and a heat sink. The heat absorbing mechanism comprises a base plate and a cover plate. The base plate comprises a bottom plate and multiple sets of heat dissipating fins, and is in contact with the central processing unit. The heat sink comprises a cooling cavity and cooling fins. The evaporation cavity is communicated with the cooling cavity via two siphon tubes to enable heat transfer and circulation of a thermal conductive medium. Lower ends of the two fin plates are positioned close to and fixed to the bottom plate, while upper ends thereof are bent outward to form a curved mechanism, and an included angle between the two fin plates continuously increases from bottom to top.

Abstract: Provided are a method and a system for reducing power consumption by automatically allocating computing resources on the basis of component temperature. The method specifically comprises: acquiring temperature values of N components of the same type at a current sampling time; calculating an average temperature value T of the components of the same type at the current sampling time and determining an upper temperature threshold Tmax and a lower temperature threshold Tmin; determining a high-temperature component Ai, a low-temperature component Bj and a normal-temperature component Ck; allocating 10% of computing resources of the high-temperature component Ai to the low-temperature component Bj, wherein the components continuously run for one cycle after the allocation; and repeating the steps after one cycle is finished.

Abstract: A siphon-based heat sink for a server comprises a heat absorbing mechanism, a siphon mechanism, and a heat sink. The heat absorbing mechanism comprises a base plate and a cover plate. The base plate comprises a bottom plate and multiple sets of heat dissipating fins, and is in contact with the central processing unit. The heat sink comprises a cooling cavity and cooling fins. The evaporation cavity is communicated with the cooling cavity via two siphon tubes to enable heat transfer and circulation of a thermal conductive medium. Lower ends of the two fin plates are positioned close to and fixed to the bottom plate, while upper ends thereof are bent outward to form a curved mechanism, and an included angle between the two fin plates continuously increases from bottom to top.

Abstract: The present invention is related to a quantifying packaging balance for weighing according to the number of the goods, characterized in that the balance includes a storage funnel, unit particle weight obtaining unit and a quantifying packaging unit, wherein the unit particle weight obtaining unit comprises a sampling device (2), a feeding device (3), multiple line vibrator (4), a storage channel (7), a camera (5), a camera control device, a light source (6) and an input device, wherein the quantifying packaging unit is a one-head quantifying packaging balance or a multiple-head quantifying packaging balance, and comprises a dividing channel (9), a feeding device (10), quantifying funnels (8, 11) and a weight control device, wherein the unit particle weight obtaining unit and all the components of the quantifying packaging unit are coordinated by PLC.

Abstract: An arrangement for a bed intented to be fitted under the bed floor in order to massage the back of the patient laying in the bed. The arrangement comprises several identical movable plates (11) intended to be accommodated under the bed floor. Each plate (11) connects a rotating shaft (111) which is then connects to a power sources. A driving motor (15) is connected to a common computer control system which, during a time-limited work cycle, intermittently control the motor to start or to stop.