Abstract: A vertical bubble machine, includes a housing, an air blowing component, a film forming component, a film scraping component, a pumping component and a liquid storage container; a mounting cavity is arranged in the housing, the film forming component is fixed in an opening of the mounting cavity, a plurality of bubbling holes are arranged on the film forming component, a liquid outlet is arranged on the film forming component, the film scraping component is rotatably assembled above the film forming component, the film scraping component is used for picking up bubble water from the liquid outlet and then sweeping past the plurality of the bubbling holes to form bubble films; the air blowing component is arranged in the mounting cavity and is located below the film forming component, an air outlet of the air blowing component faces to the film forming component.

Abstract: The present utility patent discloses an automatic bubble machine, including a fixed back shell, a back shell body, a base body, a bubble spitting device, a battery box back cover and a fixed front shell, wherein one side of the fixed back shell is fixedly connected to the fixed front shell, bottoms of the fixed back shell and the fixed front shell are rotatably connected with a bubble water base, a battery box is embedded inside the fixed back shell, screw holes are arranged inside the back shell body, and corrugated stripe grooves and transverse grooves are arranged on outer wall of the back shell body. Users rotate top of the bubble machine to change bubble spitting methods and blow out bubbles in different shapes.

Abstract: A vertical bubble machine, includes a housing, an air blowing component, a film forming component, a film scraping component, a pumping component and a liquid storage container; a mounting cavity is arranged in the housing, the film forming component is fixed in an opening of the mounting cavity, a plurality of bubbling holes are arranged on the film forming component, a liquid outlet is arranged on the film forming component, the film scraping component is rotatably assembled above the film forming component, the film scraping component is used for picking up bubble water from the liquid outlet and then sweeping past the plurality of the bubbling holes to form bubble films; the air blowing component is arranged in the mounting cavity and is located below the film forming component, an air outlet of the air blowing component faces to the film forming component.

Abstract: The present utility patent discloses an automatic bubble machine, including a fixed back shell, a back shell body, a base body, a bubble spitting device, a battery box back cover and a fixed front shell, wherein one side of the fixed back shell is fixedly connected to the fixed front shell, bottoms of the fixed back shell and the fixed front shell are rotatably connected with a bubble water base, a battery box is embedded inside the fixed back shell, screw holes are arranged inside the back shell body, and corrugated stripe grooves and transverse grooves are arranged on outer wall of the back shell body. Users rotate top of the bubble machine to change bubble spitting methods and blow out bubbles in different shapes.

Abstract: An electrochemical test base and apparatus for activated clotting time (ACT) is provided. The base includes a chip inlet. A magnetic field change structure is disposed above or below a position of the chip inlet. An ACT test chip is inserted from the chip inlet. The magnetic field change structure uniformly mixes a blood sample and a reactive reagent in the ACT test chip. The ACT test chip added with the blood sample is inserted from the chip inlet of the base. The magnetic field change structure is disposed above or below the position of the chip inlet, and applies a magnetic field to the chip. The magnetic field change structure can generate a changing magnetic field. An inertial magnetic rotating rod in a chip test cavity uniformly mixes the blood sample and the reactive reagent in the chip for thorough reaction, to ensure accurate test results, thereby resolving problems of the hysteresis and poor stability of test results.

Abstract: The present application relates to an illumination system. The illumination system comprises: a first electric appliance driver, wherein a second electric appliance driver is electrically connected to the first electric appliance driver and is configured to receive power-source power from the first electric appliance driver, to convert the power-source power into driving power, and also to perform signal detection on the power-source power and generate a control signal for controlling an illumination unit and related accessories. The technical solution of the present application facilitates providing of power or control signals to an illumination unit and related accessories.

Abstract: Provided is a multi-flux micro-fluidic chip including a chip body. The chip body includes a fluid inflow cavity communicated with an external air path, reaction-quantification cavities, waste liquid cavities, and a fluid path distribution cavity disposed at a middle position of the chip body. The two or more reaction-quantification cavities are distributed on two sides of the fluid path distribution cavity in rows to form the first and second row of reaction-quantification cavities respectively; and they are communicated with a fluid outlet of the fluid path distribution cavity through fluid path branches, and a fluid inlet of the fluid path distribution cavity through fluid path branches, and a fluid inlet of the fluid path distribution cavity is communicated with a fluid outlet of the fluid inflow cavity and an external fluid path, which making it possible to detect multiple items simultaneously and greatly improving the flux of the micro-fluidic chip.

Abstract: Provided is a single-channel chemiluminescent micro-fluidic chip, including a chip body with a quantification-reaction cavity and a waste liquid cavity. The quantification-reaction cavity is composed of a quantification-reaction pool on a lower portion and a reaction pool cover plate, the quantification-reaction pool is equally divided into three cavities by two partition plates, a labeled antibody is placed in the middle cavity, coated antibodies are placed in the others, a surface, facing the quantification-reaction pool, of the reaction pool cover plate is equally divided into two parts. In result, the coated antibodies and the labeled antibodies are physically separated to effectively avoid nonspecific binding. Due to a special structure of the reaction tank, wavy fluid flow is generated to fully mix the coated antibodies and the labeled antibodies, which improves testing efficiency and sensitivity.

Abstract: Provided is a multi-flux micro-fluidic chip including a chip body. The chip body includes a fluid inflow cavity communicated with an external air path, reaction-quantification cavities, waste liquid cavities, and a fluid path distribution cavity disposed at a middle position of the chip body. The two or more reaction-quantification cavities are distributed on two sides of the fluid path distribution cavity in rows to form the first and second row of reaction-quantification cavities respectively; and they are communicated with a fluid outlet of the fluid path distribution cavity through fluid path branches, and a fluid inlet of the fluid path distribution cavity through fluid path branches, and a fluid inlet of the fluid path distribution cavity is communicated with a fluid outlet of the fluid inflow cavity and an external fluid path, which making it possible to detect multiple items simultaneously and greatly improving the flux of the micro-fluidic chip.

Abstract: Provided is a single-channel chemiluminescent micro-fluidic chip, including a chip body with a quantification-reaction cavity and a waste liquid cavity. The quantification-reaction cavity is composed of a quantification-reaction pool on a lower portion and a reaction pool cover plate, the quantification-reaction pool is equally divided into three cavities by two partition plates, a labeled antibody is placed in the middle cavity, coated antibodies are placed in the others, a surface, facing the quantification-reaction pool, of the reaction pool cover plate is equally divided into two parts. In result, the coated antibodies and the labeled antibodies are physically separated to effectively avoid nonspecific binding. Due to a special structure of the reaction tank, wavy fluid flow is generated to fully mix the coated antibodies and the labeled antibodies, which improves testing efficiency and sensitivity.

Abstract: A method for packet transmission in an MIP network is disclosed. A mobile node sends to a Home Agent (HA) a first Firewall Detection (FD) packet encapsulated with IP security (IPsec) protocol and a second FD packet encapsulated with the IPsec protocol and User Datagram Payload (UDP) protocol. The mobile node determines whether there is a firewall blocking an IPsec packet between the mobile node and the HA according to a Firewall Detection Reply (FDR) packet from the HA. If there is a firewall, packets are encapsulated with the UDP protocol and binding update and packet exchange are performed; otherwise, binding update and packet exchange are performed. A mobile node for packet transmission is also provided. Embodiments of the present invention enables the mobile node to exchange a packet with a correspondent node when there is a firewall not supporting the IPsec protocol between the mobile node and the HA.

Abstract: The present invention provides a flexible light emitter driver circuit which adjusts the luminance of the light emitter diodes (LED) by a manual input signal. The light emitter driver circuit comprises a Duty Ratio Change Logic, a PWM Generate and Control Logic, an oscillator, and a gate driver. The Duty Ratio Change Logic adjusts the duty cycle of the output signal according to the manual input signal. The PWM Generate and Control Logic generates a PWM signal according to the output signal to control the current of the LED, thus adjusts the luminance of the LED. The present invention further provides a highly flexible display system that comprises a light emitter driver circuit which can adjust the LED luminance by manual input signal.

Abstract: A method for communication of MIPv6 mobile nodes, comprising: the mobile node accesses network at access location and obtains care of address, calculating a privacy identifier PID using the care of address etc. the mobile node replaces its home address by the PID, and sends the PID and the care of address together as binding update message to the home agent and correspondent node, the home agent and correspondent node recover the home address for the mobile node using the PID after they have received the binding update message. The method for communication of MIPv6 mobile nodes according to the present invention uses that a configuring replaced identifier replacing the home address is sent, thereby hiding Ipv6 address. By setting PID and its algorithm, we improve the sequence number in the binding update messages enabling the sequence number has randomness, and prevent the intercepting person continue tracking the mobile node through the home address.

Abstract: The present invention provides a flexible light emitter driver circuit which adjusts the luminance of the light emitter diodes (LED) by a manual input signal. The light emitter driver circuit comprises a Duty Ratio Change Logic, a PWM Generate and Control Logic, an oscillator, and a gate driver. The Duty Ratio Change Logic adjusts the duty cycle of the output signal according to the manual input signal. The PWM Generate and Control Logic generates a PWM signal according to the output signal to control the current of the LED, thus adjusts the luminance of the LED. The present invention further provides a highly flexible display system that comprises a light emitter driver circuit which can adjust the LED luminance by manual input signal.

Abstract: A method for packet transmission in an MIP network is disclosed. A mobile node sends to a Home Agent (HA) a first Firewall Detection (FD) packet encapsulated with IP security (IPsec) protocol and a second FD packet encapsulated with the IPsec protocol and User Datagram Payload (UDP) protocol. The mobile node determines whether there is a firewall blocking an IPsec packet between the mobile node and the HA according to a Firewall Detection Reply (FDR) packet from the HA. If there is a firewall, packets are encapsulated with the UDP protocol and binding update and packet exchange are performed; otherwise, binding update and packet exchange are performed. A mobile node for packet transmission is also provided. Embodiments of the present invention enables the mobile node to exchange a packet with a correspondent node when there is a firewall not supporting the IPsec protocol between the mobile node and the HA.

Abstract: A method for a MIPv6 packet traversing a firewall includes: acquiring filtering information containing the home address of a Mobile Node (MN) from an MIPv6 packet initiating communication; establishing a filtering rule according to the filtering information; and filtering a sequent MIPv6 packet according to the filtering rule. A firewall according to the above method is also provided. According to the present invention, it may be guaranteed that a MIPv6 pack may reliably traverse a firewall in various cases. Moreover, in the case that an MN and a CN do not know whether there is a firewall between them and do not know the location of the firewall, the normal communication may still ensure not to be interrupted when the address of the MN changes.