Abstract: An active plug connector (100; 300) adapted to plug into a receptacle includes a shell (11; 21; 31) defining a receiving room (114; 314), a pair of printed circuit boards (12, 13; 22, 23; 32, 33) received in the receiving room and disposed horizontally and spaced apart from each other along a vertical direction, an active element mounted on one of the two printed circuit boards, and a connecting member (14; 24; 34) electrically connected with the two printed circuit boards to share the active element. A method for assembling the active plug connector comprises inserting the connecting member into the receiving room to electrically connect with the conductive pads of the printed circuit boards to share the active element.

Abstract: A cable connector assembly includes a connector and a cable electrically connected with the connector. The connector includes a shell, a first and a second printed circuit boards received in the shell, and an opto-electronic conversion module, the second printed circuit board including a first end electrically connected with the first printed circuit board and a second end opposite to the first end, the second end comprising a first connecting portion electrically connected with the opto-electronic conversion module and a second connecting portion. The cable includes a number of electrical wires electrically connected with the second connecting portion for transmitting electrical signal and a number of optical fibers or wires coupling with the opto-electronic conversion module for transmitting optical signal.

Abstract: A low profile connector having a first mating slot and a second mating slot vertically stacked above and backwardly offseted from the first mating slot, and a complementary electrical plug. The electrical plug has a first mating card and a second mating card horizontally stacked above the first mating card forwardly offseted from the first mating card. The electrical connector is matable with an existing SFP or QSFP plug, and the first mating slot are used to receive a front card edge of the existing SFP or QSFP plug.

Abstract: A delatch mechanism for a plug connector (100) plugged in a cage (20). The delatch mechanism includes a latch block (210) positioned at an exterior surface of the cage, a latch tap (14) positioned at an exterior portion of the plug connector (100), and an actuator member (3) positioned at the exterior portion of the plug connector. The latch tap has a latch hole (1421) for matching with the latch block to lock the plug connector with the cage. Drive the actuator member so that the latch block away from the latch hole to unlock the plug connector from the cage. Through setting the latch block on the cage and the latch hole on the plug connector, the delatch mechanism runs easily for unlatch process.

Abstract: Embodiments of the invention include a phosphorus containing flame retardant which may be the reaction product of a reaction mixture where the reaction mixture includes at least one first polyol and at least one phosphorus containing compound having the general formula (1), (2) or combination thereof:

Abstract: A low profile connector having a first mating slot and a second mating slot vertically stacked above and backwardly offseted from the first mating slot, and a complementary electrical plug. The electrical plug has a first mating card and a second mating card horizontally stacked above the first mating card forwardly offseted from the first mating card. The electrical connector is matable with an existing SFP or QSFP plug, and the first mating slot are used to receive a front card edge of the existing SFP or QSFP plug.

Abstract: Methods and systems are provided for remotely deploying computer programs. Remote deployment is implemented by acquiring available resource information and related network resource information of a client in response to a request for remotely deploying a plurality of computer programs for the client; determining a deployment policy based on the available resource information and the related network resource information of the client; and remotely deploying transmission and installation of the plurality of computer programs based on the deployment policy.

Abstract: Methods and systems are provided for remotely deploying computer programs. Remote deployment is implemented by acquiring available resource information and related network resource information of a client in response to a request for remotely deploying a plurality of computer programs for the client; determining a deployment policy based on the available resource information and the related network resource information of the client; and remotely deploying transmission and installation of the plurality of computer programs based on the deployment policy.

Abstract: This invention relates to a process for producing sapogenins and ginsenosides comprising the steps of mixing a ginsenoside extract with water, mixing the ginsenoside extract and water with an alkali-metal alcoholate solution or a hydroxide-ethanol solution to produce a mixture; or, alternatively, mixing a ginsenoside extract with ethanol, mixing the extract and ethanol with alkali-metal alcoholates solution to produce a mixture. The resultant mixture is placed in a reaction tank so that the resultant mixture can undergo chemical reactions under high temperature and high pressure effective to produce sapogenins therefrom. The temperature of the reaction tank can range between 150-300° C. and the pressure can range between 2.5 to 8.4 MPa. After the reaction is completed, an intermediate product of a mix of ginsenosides and sapogenins from the ethanol mixture is collected and the desired sapogenins and ginsenosides are separated from the intermediate product by silica-gel-column chromatography.