Abstract: A portable infusion device adapted to hold an infusion bag is provided. The infusion bag includes a bag body and an infusion tube connected to the bag. The portable infusion device includes a case, a plate and an elevating mechanism. The case includes an accommodating space for accommodating the bag body. The case has an aperture. The infusion tube is adapted to pass through the aperture. The plate is disposed in the receiving space and is adapted to carry the bag body. The elevating mechanism is disposed in the accommodating space and is movably connected to the case. The plate is fixed on the elevating mechanism. The elevating mechanism is adapted to push the plate to move. The portable infusion device is easily carried in use.

Abstract: The present invention provides a method for forming a semiconductor structure, comprising: firstly, a substrate is provided, next, a first dry etching process is performed, to form a recess in the substrate. Afterwards, an ion implantation process is performed to a bottom surface of the recess, a wet etching process is then performed, to etch partial sidewalls of the recess, so as to form at least two tips on two sides of the recess respectively, and a second dry etching process is performed, to etch partial bottom surface of the recess, wherein after the second dry etching process is performed, a lower portion of the recess has a U-shaped cross section profile.

Abstract: A water pump device including a driving motor, a housing, a magnetic rotating member and a magnetic impeller unit is provided. The driving motor includes a rotating shaft extending outside the housing. The housing is disposed on the driving motor and includes an accommodation portion and a water drawing portion. The water drawing portion has a water inlet and a water outlet. The magnetic rotating member is disposed in the accommodation portion. The rotating shaft is disposed in the magnetic rotating member. The magnetic rotating member includes alternately arranged first surfaces and second surfaces, and their respective magnetic poles are different. The magnetic impeller unit is disposed opposite to top of the magnetic rotating member and located in the water drawing portion. The magnetic impeller unit includes alternately arranged third surfaces and fourth surfaces, and their respective magnetic poles are different.

Abstract: The present invention provides a semiconductor structure, which includes a substrate, at least two gate structures disposed on the substrate, a first recess, disposed in the substrate between two gate structures, the first recess having a U-shaped cross section profile, and a second recess, disposed on the first recess, the second recess having a polygonal shaped cross section profile, and has at least two tips on two sides of the second recess, the first recess and the second recess forming an epitaxial recess.

Abstract: An epitaxial process applying light illumination includes the following steps. A substrate is provided. A dry etching process and a wet etching process are performed to form a recess in the substrate, wherein an infrared light illuminates while the wet etching process is performed. An epitaxial structure is formed in the recess.

Abstract: A detection chip is provided. The detection chip includes a substrate, an active reagent, a hydrophilic droplet and a lipophilic substance. The substrate includes a first containing slot, wherein the first containing slot includes a first space and a second space adjacent to each other. The active reagent is disposed in the first space of the first containing slot. The hydrophilic droplet is disposed in the second space of the first containing slot. The lipophilic substance is disposed in the first containing slot, wherein the lipophilic substance is immiscible to the active reagent and the hydrophilic droplet, and separates the active reagent from the hydrophilic droplet.

Abstract: A apparatus for microfluid detection for detecting a sample fluid including a plurality of magnetic particles is provided. The apparatus for microfluid detection includes a microfluidic chip and a magnetic generating module. The microfluidic chip includes a substrate and microfluidic channels, wherein the sample fluid is carried by a carry surface of the substrate. The magnetic generating module is adapted for providing a positioning magnetic field and a surrounding magnetic field. The magnetic module controls to move the sample fluid and change a distribution of the magnetic particles in the sample fluid through the positioning magnetic field and the surrounding magnetic field.

Abstract: An anti-VEGF antibody, or a binding fragment thereof, includes a heavy-chain variable region that comprises: (1) a CDRH1 sequence selected from SEQ ID NO: 17, 20, 23, 26, 29, 32, 35, or 38), (2) a CDRH2 sequence selected from SEQ ID NO:18, 21, 24, 27, 30, 33, 36, or 39, and (3) a CDRH3 sequence selected from SEQ ID NO:19, 22, 25, 28, 31, 34, 37, or 40; and a light-chain variable region that comprises: (1) a CDRL1 sequence selected from SEQ ID NO: 41, 44, 47, 50, 53, 56, 59, or 62, (2) a CDRL2 sequence selected from SEQ ID NO: 42, 45, 48, 51, 54, 57, 60, or 63, and (3) a CDRL3 sequence selected from SEQ ID NO: 43, 46, 49, 52, 55, 58, 61, or 64. A method for treating or preventing a VEGF-related disorder, e.g., diabetic retinopathy, age-related macular degeneration, or cancer, uses the antibodies.

Abstract: A driving device includes a hub portion, a plurality of extension plates and a plurality of driving components. Each extension plate has a first terminal and a second terminal opposite to each other. The first terminal of each extension plate is connected to the hub portion. Each driving component is movably disposed in the respective extension plate. When a first of the plurality of driving component moves along a straight direction, a second of the plurality of driving component moves along a curved direction, thereby resulting in that the first and second driving components corporately drive the hub portion to rotate along a direction, wherein the first and second driving components are disposed opposite to each other.

Abstract: A planting package is provided. The planting package includes a water discharging bag, a soil, at least a seed and a hanging structure, wherein the water discharging bag is made of material having water discharging function. The water discharging bag has a tear line to form a tear portion on the water discharging bag. The soil is disposed in the water discharging bag, the seed is also disposed in the water discharging bag, and the hanging structure is disposed on an outer surface of the water discharging bag. The planting package has the advantage of easily planted.

Abstract: A wearable electronic device performs a voice communication through a host. The wearable electronic device includes a wireless transmission module, an identification module and a voice transceiver module. The wireless transmission module is configured to transmit signals with the host. The identification module is stored with a prepaid amount data provided to the host for a validation, and the wearable electronic device builds up a voice communication through the host when the validation is positive. The voice transceiver module is electrically connected to the wireless transmission module. A telephone apparatus using the aforementioned wearable electronic device is also provided.

Abstract: A humanized antibody, or a scFv, Fab, or F(ab?)2 thereof, includes: a heavy chain variable region, or a homologous variant thereof, wherein the heavy chain variable region includes: heavy chain framework regions, CDRH1 that has the sequence of SEQ ID NO:19, CDRH2 that has the sequence of SEQ ID NO:20, and CDRH3 that has the sequence of SEQ ID NO:21, wherein the heavy chain variable region and the homologous variant share at least 90% sequence identity in the heavy chain framework regions; and a light chain variable region, or a homologous variant thereof, that includes: light chain framework regions, CDRL1 that has the sequence of SEQ ID NO:22, CDRL2 that has the sequences of SEQ ID NO:23, and CDRL3 that has the sequences of SEQ ID NO:24, wherein the light chain variable region and the homologous variant share at least 90% sequence identity in the light chain framework regions.

Abstract: A method for manipulating a droplet by a droplet manipulating device including a flow channel, a first magnetic field generator, and a second magnetic field generator is provided. The first magnetic field generator includes two first magnetic field modules and are at two sides of the flow channel. The second magnetic field generator is between the two first magnetic field modules and includes multiple second magnetic field coils. The droplet is provided in the flow channel and includes a magnetic particle. A first magnetic field is produced on the flow channel by the first magnetic field modules, so the magnetic particle in the droplet has the direction of magnetic field corresponding to the first magnetic field. A second magnetic field is produced on the flow channel by the second magnetic field coils, for driving the magnetic particle in the droplet to be in motion in the flow channel.

Abstract: The disclosure relates to a droplet manipulating device and a method for manipulating a droplet. The droplets manipulating device includes a first magnetic field generator, a second magnetic field generator, and a flow channel. The first magnetic field generator produces a first magnetic field on the droplet, so that the droplet has the direction of magnetic field corresponding to the first magnetic field. Further, the second magnetic field generator produces a second magnetic field on the droplet so as to drive the droplet to be in motion in the flow channel.

Abstract: A method for manipulating a droplet by a droplet manipulating device including a flow channel, a first magnetic field generator, and a second magnetic field generator is provided. The first magnetic field generator includes two first magnetic field modules and are at two sides of the flow channel. The second magnetic field generator is between the two first magnetic field modules and includes multiple second magnetic field coils. The droplet is provided in the flow channel and includes a magnetic particle. A first magnetic field is produced on the flow channel by the first magnetic field modules, so the magnetic particle in the droplet has the direction of magnetic field corresponding to the first magnetic field. A second magnetic field is produced on the flow channel by the second magnetic field coils, for driving the magnetic particle in the droplet to be in motion in the flow channel.

Abstract: The disclosure relates to a droplet manipulating device and a method for manipulating a droplet. The droplets manipulating device includes a first magnetic field generator, a second magnetic field generator, and a flow channel. The first magnetic field generator produces a first magnetic field on the droplet, so that the droplet has the direction of magnetic field corresponding to the first magnetic field. Further, the second magnetic field generator produces a second magnetic field on the droplet so as to drive the droplet to be in motion in the flow channel.

Abstract: A apparatus for microfluid detection for detecting a sample fluid including a plurality of magnetic particles is provided. The apparatus for microfluid detection includes a microfluidic chip and a magnetic generating module. The microfluidic chip includes a substrate and microfluidic channels, wherein the sample fluid is carried by a carry surface of the substrate. The magnetic generating module is adapted for providing a positioning magnetic field and a surrounding magnetic field. The magnetic module controls to move the sample fluid and change a distribution of the magnetic particles in the sample fluid through the positioning magnetic field and the surrounding magnetic field.

Abstract: A detection chip is provided. The detection chip includes a substrate, an active reagent, a hydrophilic droplet and a lipophilic substance. The substrate includes a first containing slot, wherein the first containing slot includes a first space and a second space adjacent to each other. The active reagent is disposed in the first space of the first containing slot. The hydrophilic droplet is disposed in the second space of the first containing slot. The lipophilic substance is disposed in the first containing slot, wherein the lipophilic substance is immiscible to the active reagent and the hydrophilic droplet, and separates the active reagent from the hydrophilic droplet.

Abstract: FLB5M5 is a humanized monoclonal antibody with three mutated amino acids in the CDRs relative to its parental mouse anti-IL-20 monoclonal antibody 7E and five mutated amino acids of the light-chain framework region relative to the amino acids of the light-chain framework region of human V?2. FLB5M5 not only retains binding specificity toward IL-20 but also has a better binding affinity than 7E for IL-20. FLB5M5 is also less immunogenic than 7E to the human host in clinical application. A mutation in the light chain CDR to tyrosine increases binding affinity to IL-20. A method for treating rheumatoid arthritis using FLB5M5 is also disclosed.

Abstract: An energy-saving device is electrically connected between an output terminal of an electric power and an input terminal of a load and includes a current dividing unit connected with the load in parallel, and a voltage dividing unit connected with the load serially. The current dividing unit has an input terminal electrically coupled to an output terminal of the load and an output terminal electrically coupled to the input terminal of the load. The voltage dividing unit has an input terminal electrically coupled to the output terminal of the electric power and an output terminal electrically coupled to the input terminal of the load. Thus, the voltage dividing unit drops the voltage of the load applied by the electric power, and the current dividing unit increases the current flowing into the load, so that the energy-saving device achieves an energy-saving purpose.