Abstract: A method of planting a handle and a bottle parison to a mold of blow-molding modules, including the steps of: first, holding a handle temporarily on a handle positioning device; then, holding a bottle parison temporarily on a bottle parison positioning device while a bottle blowing mold is in a mold-breaking state; moving the handle downward into the bottle blowing mold through the handle positioning device; positioning the handle at a desired position while the bottle blowing mold is switched to the mold-closing state; and moving the bottle parison downward into the bottle blowing mold through the bottle parison positioning device, and clamping the bottle opening of the bottle parison at the same time.

Abstract: A method of planting a handle and a bottle parison to a mold of blow-molding modules, including the steps of: first, holding a handle temporarily on a handle positioning device; then, holding a bottle parison temporarily on a bottle parison positioning device while a bottle blowing mold is in a mold-breaking state; moving the handle downward into the bottle blowing mold through the handle positioning device; positioning the handle at a desired position while the bottle blowing mold is switched to the mold-closing state; and moving the bottle parison downward into the bottle blowing mold through the bottle parison positioning device, and clamping the bottle opening of the bottle parison at the same time.

Abstract: A method of aligning handles in rows for a rotating blow-molding machine for handled-bottles includes steps of: providing at least one handle conveying device to provide a plurality of unaligned handles, and providing a plurality of pairs of row aligning modules and bottle blowing modules to form a plurality of common modules. The row aligning modules receive the handles from the handle conveying device and arrange the handles in rows and send the aligned handles to the corresponding bottle blowing modules. Thus the row aligning modules are rotated synchronously with the corresponding bottle blowing modules without the problem of handle transport synchronization during high speed, and sufficient time is provided to align all the handles in rows.

Abstract: The present invention provides a complete artificial intelligence system for the acquisition and analysis of nucleic acid array hybridization information. The system includes a central data processing facility and one or more user facilities, linked by encrypted connections. Each user facility may include an optical scanning system to collect hybridization signals from a nucleic acid array, an image processing system to convert the optical data into a set of hybridization parameters, a connection to a data network, and a user interface to display, manipulate, search, and analyze hybridization information. This system reads data from a nucleic acid microarray, analyzes test results, evaluates patient risk for various ailments, and recommends methods of treatment. The automated artificial intelligence system is a real time, dynamic decision making tool that can be used in conjunction with a clinical analysis system, and with the information obtained in a research and development environment.

Abstract: The invention provides a method for increasing the hybridization rate of nucleic acids in a nucleic acid assay by labeling nucleic acid molecules with paramagnetic labels and activating a magnetic field inducing rapid migration of the labeled molecules to a solid support, where the labeled molecule hybridizes with its complementary pair. The paramagnetic label may be present on the target nucleic acid or the probe nucleic acid, depending upon whether the target or probe are the immobile phase.

Abstract: The invention provides a method for increasing the hybridization rate of nucleic acids in a nucleic acid assay by labeling nucleic acid molecules with paramagnetic labels and activating a magnetic field inducing rapid migration of the labeled molecules to a solid support, where the labeled molecule hybridizes with its complementary pair. The paramagnetic label may be present on the target nucleic acid or the probe nucleic acid, depending upon whether the target or probe are the immobile phase.