Abstract:
A method and apparatus are described for handling local Internet protocol (IP) access (LIPA) connection during circuit switched fallback (CSFB) and handover (HO). One representative method of managing a Local Internet Protocol Access (LIPA) packet data network (PDN) connection to a wireless transmit/receive unit (WTRU), includes performing a switching operation to switch from the LIPA PDN connection to a non-LIPA PDN connection for communication to the WTRU; and suspending the LIPA PDN connection, in response to the switching operation.
Abstract:
A method for making a planar heater is provided. A first electrode and a second electrode are connected to a carbon nanotube structure having a plurality of micropores. The carbon nanotube structure is fixed on a surface of a planar supporter. A material is supplied into the carbon nanotube structure to achieve a carbon nanotube composite structure.
Abstract:
The present invention discloses a pump-type autoclave system and a providing method for steam and pressure thereof, wherein the pump-type autoclave system comprises an autoclave, a steam providing device and a compressor, said steam providing device comprises a water storage container and a heating device used for heating said water storage container, said water storage container, the compressor and the autoclave are connected through a pipeline to form a closed loop, an inlet of the compressor is connected with a steam output port of the water storage container, an outlet of the compressor is connected to a steam input port of the autoclave, and a condensate water drain outlet of the autoclave is connected to the water storage container. The present invention uses the compressor to depressurize an intermediate-low temperature water source to obtain steam, and the steam is pumped into the autoclave and condensed to release heat to obtain corresponding temperature and pressure. Since the present invention fully utilizes a great amount of low-cost intermediate-low temperature heat sources obtained from natural, industrial or living waste heat to provide needed high temperature, steam and pressure to the autoclave system, the energy is saved.
Abstract:
Methods, apparatus and systems for managing or handling a wireless transmit/receive unit (WTRU) are disclosed. One method includes combined registering the WTRU for a circuit switched (CS) service and a packet switched (PS) service; and the WTRU performing an independent location area update procedure to a mobile switching center (MSC)/visitor location register (VLR) responsive to: (1) the WTRU moving from a first routing area to a second routing area and (2) the WTRU running a back-off timer.
Abstract:
The present invention discloses novel solar autoclave equipment, which comprises an autoclave and a steam providing device, wherein said steam providing device is a solar heating device and comprises a plurality of vacuum tubes which are fixedly arranged outdoors and a connecting tube, a tubular water tank is installed in each said vacuum tube in an insertion manner, each said tubular water tank is in the shape of a straight tube with a closed lower end and an open upper end, the upper end of each said tubular water tank stretches out of said corresponding vacuum tube and is communicated with said connecting tube, and a space between the outer surface of the upper end of said tubular water tank and the inner wall of the upper end of said corresponding vacuum tube is sealed; and an inlet of said connecting tube is connected with a condensate water drain outlet of said autoclave, and an outlet of said connecting tube is connected to a steam input port of said autoclave through a compressor. The present invention uses the compressor to depressurize the solar heating device to obtain steam, the steam is pumped into the autoclave and condensed to release heat to provide corresponding temperature and pressure to the autoclave, and thus the solar heating device can be applied on autoclave equipment.
Abstract:
A printing method for three-dimensional painting by UV digital printing device has acts of: First, preparing a printing device having a white print set and a color print set. Second, moving the printing device transversely from one side to the other side of an object for multiple times, wherein the two print sets respectively print on two adjacent zones. Third, moving the printing device longitudinally to next zone on the object. Fourth, repeating the second and third acts until the printing device moves over a last zone on the object. The printing device moves longitudinally after the printing device moves transversely to and fro to finish the height of a zone. Thus, the printing device completes all the heights and the colors in one time of longitudinal moving. Then printing consumes less time and the printing device therefore does not have to be orientated again.
Abstract:
A computer-implemented process, system, and computer-readable storage medium having stored thereon, program code and instructions for 3-D triangulation-based image acquisition of a contoured surface/object-of-interest under observation by at least one camera, by projecting onto the surface-of-interest a multi-frequency pattern comprising a plurality of pixels representing at least a first and second superimposed sinusoid projected simultaneously, each of the sinusoids represented by the pixels having a unique temporal frequency and each of the pixels projected to satisfy I n p = A p + ∑ k = 1 K B k p cos ( 2 π f k y p + 2 π kn N ) Eq . ( 1.1 ) where Inp is the intensity of a pixel in the projector for nth projected image in a particular instant in time; K is an integer representing the number of component sinusoids (e.g., K=2 for a dual-frequency sinusoid pattern, K=3 for a triple-frequency sinusoid, and so on), each component sinusoid having a distinct temporal frequency, where K is less than or equal to (N+1)/2. Images then captured by the camera are defined according to: I n c = A c + ∑ k = 1 K B k c cos ( 2 π f k y p + 2 π kn N ) + η Eq . ( 1.2 ) To obtain phase terms from the pixels projected in accordance with Eq. 1.2, for each k: 2 π f k y p = arctan ( ∑ n = 0 N - 1 I n c × cos ( 2 π kn N ) ∑ n = 0 N - 1 I n c × sin ( 2 π kn N ) ) . Eq . ( 1.3 )
Abstract:
A system and method for specificity-based multimodality three-dimensional optical tomography imaging comprises steps of: optical imaging to obtain a light intensity of body surface optical signal of an imaging target; CT imaging to obtain structure volume data; establishing an equation representing a linear relationship between the distribution of the obtained light intensity of body surface optical signal of the imaging target, the obtained CT discrete mesh data and the distribution of unknown internal self-luminescence light sources; establishing a dynamic sparse regularization target function in every iteration for the equation; and reconstructing a tomography image. The present invention well considers the optical specificity of tissue, in which there is a non-uniform optical characteristic parameter distribution within the same tissue when finite element modeling is used, which is closer to the real situation, so that an accurate imaging effect is achieved.