Abstract:
The present disclosure provides a bracket connecting structure. The bracket connecting structure includes a bracket mounting piece, a mounting tube connected with the bracket mounting piece, and a locking assembly arranged on the mounting tube. The locking assembly includes a locking piece, a driving piece and a driving fitting piece which are arranged in the mounting tube. The locking piece is arranged in the mounting tube in rotating connection with the mounting tube. The driving fitting piece is rotatably connected with the locking piece. The driving piece runs through the mounting tube and is adaptively connected with the driving fitting piece.
Abstract:
The present invention relates to novel compounds that inhibit Lp-PLA2 activity, processes for their preparation, to compositions containing them and to their use in the treatment of diseases associated with the activity of Lp-PLA2, for example atherosclerosis, Alzheimer's disease and/or diabetic macular edema.
Abstract:
A mobile communication apparatus comprising a processor and a user interface UI is disclosed. The UI comprises a display and an input means, the input means is arranged to sense a three-dimensional direction, the processor is arranged to assign three-dimensional spatial data to said three-dimensional direction and to a plurality of items, and the display is arranged to view the three-dimensional items and the three-dimensional direction according to the three-dimensional spatial data. An input method for the mobile communication apparatus is also disclosed.
Abstract:
A folding table may include a table top and a supporting frame. The supporting frame may have a leg portion, an interconnecting portion and a central supporting structure; and the table top that is detachable from the supporting frame may have a plurality of connected table pieces. The leg portion includes a plurality of legs and the interconnecting portion is used to connect the legs of the leg portion, and the central supporting structure is located at center portion of the supporting frame to provide additional support to the supporting frame and is configured to start a table folding process.
Abstract:
The present invention discloses an Al—Sb—Te phase change material used for PCM and fabrication method thereof. Said phase change material, which can be prepared by PVD, CVD, ALD, PLD, EBE, and ED, is a mixture of three elements aluminum (Al), antimony (Sb) and tellurium (Te) with a general formula of Alx(SbyTe1)1-x, where 0
Abstract:
The present invention relates to novel compounds that inhibit Lp-PLA2 activity, processes for their preparation, to compositions containing them and to their use in the treatment of diseases associated with the activity of Lp-PLA2, for example atherosclerosis, Alzheimer's disease, and/or diabetic macular edema.
Abstract:
The present disclosure provides a bracket connecting structure. The bracket connecting structure includes a bracket mounting piece, a mounting tube connected with the bracket mounting piece, and a locking assembly arranged on the mounting tube. The locking assembly includes a locking piece, a driving piece and a driving fitting piece which are arranged in the mounting tube. The locking piece is arranged in the mounting tube in rotating connection with the mounting tube. The driving fitting piece is rotatably connected with the locking piece. The driving piece runs through the mounting tube and is adaptively connected with the driving fitting piece.
Abstract:
Modulating graphene's optical conductivity with an electrolyte nanopatterning technique reduces or eliminates scattering loss caused by rough edges from etching. This technique uses a resist mask patterned with features as small as 30 nm to shield graphene from ions in an electrolyte. It can provide a carrier density variation of about 1014 cm−2 across a length of just 15 nm. And it can be combined with a technique of growing or transferring graphene on atomically smooth hexagonal boron nitride (hBN) to increase graphene's carrier mobility, e.g., to 10,000 cm2/(V·s) or more. The resulting graphene metamaterials can be used to make voltage-tunable electro-optical devices, such as beam-steering devices, electro-optical switch and modulators, and reconfigurable holograms.
Abstract:
The present disclosure describes micromechanical devices and methods for using such devices for characterizing a material's strength. The micromechanical devices include an anchor pad, a top shuttle platform, a nanoindenter in movable contact with the top shuttle platform and at least two sample stage shuttles. The nanoindenter applies a compression force to the top shuttle platform, and the at least two sample stage shuttles move apart in response to the compression force. Each of the at least two sample stage shuttles is connected to the top shuttle platform and to the anchor pad by at least one inclined beam. Methods for using the devices include connecting a sample between the at least two sample stage shuttles and applying a compression force to the top shuttle platform. Application of the compression force to the top shuttle platform results in a tensile force being applied to the sample. Measuring a tip displacement of the nanoindenter is correlated with the sample's strength. Illustrative materials that can be studied using the micromechanical devices include, for example, nanotubes, nanowires, nanorings, nanocomposites and protein fibrils.
Abstract:
The present disclosure describes micromechanical devices and methods for using such devices for characterizing a material's strength. The micromechanical devices include an anchor pad, a top shuttle platform, a nanoindenter in movable contact with the top shuttle platform and at least two sample stage shuttles. The nanoindenter applies a compression force to the top shuttle platform, and the at least two sample stage shuttles move apart in response to the compression force. Each of the at least two sample stage shuttles is connected to the top shuttle platform and to the anchor pad by at least one inclined beam. Methods for using the devices include connecting a sample between the at least two sample stage shuttles and applying a compression force to the top shuttle platform. Application of the compression force to the top shuttle platform results in a tensile force being applied to the sample. Measuring a tip displacement of the nanoindenter is correlated with the sample's strength. Illustrative materials that can be studied using the micromechanical devices include, for example, nanotubes, nanowires, nanorings, nanocomposites and protein fibrils.