Abstract:
A fabricating method for a system that includes a plurality of processing apparatuses connected to each other by an inter-apparatus transporter and a computer storing managing information of processing and transporting of semiconductor wafers. The processing apparatuses have an interface for loading and unloading a plurality of the semiconductor wafers that are contained in a carrier. The semiconductor waters are processed in processing chambers of the processing apparatuses and the result of processing is monitored. In the processing, a first carrier containing the plurality of the semiconductor wafers having been processed in the first processing apparatus is transported toward the second processing apparatus by the inter-apparatus transporter prior to unloading of a second carrier containing semiconductor wafers processed in the second processing apparatus, according to the managing information.
Abstract:
A fabricating method for a system that includes a plurality of processing apparatuses connected to each other by an inter-apparatus transporter and a computer storing managing information of processing and transporting of semiconductor wafers. The processing apparatuses have an interface for loading and unloading a plurality of the semiconductor wafers that are contained in a carrier. The semiconductor waters are processed in processing chambers of the processing apparatuses and the result of processing is monitored. In the processing, a first carrier containing the plurality of the semiconductor wafers having been processed in the first processing apparatus is transported toward the second processing apparatus by the inter-apparatus transporter prior to unloading of a second carrier containing semiconductor wafers processed in the second processing apparatus, according to the managing information.
Abstract:
A fabricating method for a system that includes a plurality of processing apparatuses connected to each other by an inter-apparatus transporter and a computer storing managing information of processing and transporting of semiconductor wafers. The processing apparatuses have an interface for loading and unloading a plurality of the semiconductor wafers that are contained in a carrier. The semiconductor waters are processed in processing chambers of the processing apparatuses and the result of processing is monitored. In the processing, a first carrier containing the plurality of the semiconductor wafers having been processed in the first processing apparatus is transported toward the second processing apparatus by the inter-apparatus transporter prior to unloading of a second carrier containing semiconductor wafers processed in the second processing apparatus, according to the managing information.
Abstract:
A processing method capable of presenting the processing condition with a high accuracy to improve the productivity, including a step of applying a first processing to a first substrate and a step of applying a second processing to the first substrate or the second processing to a second substrate and determining a correlation function for each of in-plane positions as the data for the difference in a plurality of processing steps to each of the in-plane positions in view of on the in-plain distribution data to the in-plane position of each of the substrate as a result of the plurality of processings, calculating the in-plain distribution characteristics of the substrate under a desired processing condition in view of the correlation function and processing the substrate based on the in-plain distribution characteristics.
Abstract:
A film formed on a surface of a wafer on which an integrated circuit is to be constructed can be planarized by using a fixed abrasive tool regardless of the width of elements of a pattern underlying the film. The fixed abrasive tool is liable to form scratches in the surface of the film. A planarizing process of the present invention employs a fixed abrasive tool containing substances harder than the film to be planarized in a content of 10 ppm or below and having a mean pore diameter of 0.2 &mgr;m or below.
Abstract:
Disclosed is a fabricating system including a plurality of processing apparatuses connected to each other by means of an inter-apparatus transporter, wherein one group of semiconductor wafers are processed in processing apparatuses and other group of wafers are transported to specified processing apparatuses for a time interval from (To+T) to a time To; and another group of wafers are processed and the remaining group of wafers are transported for a time interval from (To+T) to (To+2T). Since processing apparatuses can receive at least one of works from the inter-apparatus transporter for a time interval T min, the distribution of works from the transporter to processing apparatuses is completed for the time interval T min. The transporter is emptied for each time interval T min, and works are unloaded to the emptied transporter, which makes easy the scheduling, control and management of the transporting of a plurality of works in the fabricating system. Moreover, since the fabricating system including processing apparatuses is periodically controlled at a cycle time T min, the scheduling of a plurality of works can be made easy, to enhance the level of optimization, thus improving the productivity.
Abstract:
Disclosed is a method of polishing a thin film layer to be polished, which is formed on the surface of a substrate, by pressing the substrate on the surface of a polishing pad and relatively moving the substrate and the polishing pad, the method comprising the steps of: detecting the position of a front surface of the thin film layer to be polished using a first sensor and also detecting the position of a bottom surface of the thin film layer using a second sensor, on the way of the polishing; calculating the residual thickness of the thin film layer on the basis of the detected positions of the front and bottom surfaces of the thin film layer; and controlling the processing condition of the subsequent polishing on the basis of the calculated residual thickness of the thin film layer.
Abstract:
A wafer transport method including the steps of preparing a semiconductor process equipment having a transport chamber, a process chamber, an interface means for connecting the transport chamber to the process chamber, and a transport means for transporting a semiconductor wafer from the transport chamber to the process chamber by way of the interface means; inserting the transport means mounting a substrate in a communicating corridor including a supply means and an exhaust means; and transporting the substrate while performing the supply and exhaust by sequentially controlling a supply shutoff means, an exhaust shutoff means, and a communicating shutoff means according to the position of a conductance part formed of a gap between the transport means and the communicating corridor. With this method, the substrate is transported at a high throughput without the contamination on the substrate while keeping the different atmospheric conditions of the transport chamber and the process chamber, thereby manufacturing a semiconductor device with a high performance.
Abstract:
A method and an apparatus for the treatment of particles or biological cells are disclosed, wherein the particles or cells are precipitated or ascended depending on the specific gravity of a liquid used, and the particles or cells are handled with the aid of a holding plate. A method and an apparatus for the fusion of particles or cells are also disclosed, wherein an electric voltage is loaded on a position between electrodes in a microchamber to fuse the particles or cells held in the microchamber.
Abstract:
Firstly, each of the cores of a multicore cable are connected at one end thereof to the respective contacts of one of two connectors at random. Then, using a detector for detecting the change of electrical conditions of the cores, detection is made in a random fashion for the other ends of the cores to determine to which line contact of the one connector the one end of the corresponding core has been connected. The other end of the detected core is connected to a contact of a desired line of the other connector. In this manner, the both ends of the cores are connected to contacts of desired lines of the two connectors.