Abstract:
A permeable spraying device for making drug tablets mainly comprises a carrying platform, a spraying equipment, a flattening device and a control equipment, the carrying platform defines a powder dropping area and a flattened spraying area, and a moving device combined with the carrying platform is capable of moving vertically. The spraying equipment is mounted above the carrying platform, and the spraying equipment comprises a powder box, a colloid spraying equipment, a driving device and a placement platform. The placement platform is disposed with a plurality of supplementary colloid carriers. The flattening device is installed on the carrying platform and moves horizontally back and forth in the flattened spraying area. The control equipment is equipped with a storage unit and an execution control unit. A multi-layer drug body structure can be formed by deposition, stacking and bonding.
Abstract:
Distributed resource management systems and methods thereof are provided. Distributed resource management system at least includes resource managers (RMs) and resource consumers (RCs). RMs obtain current usage information of the resources of the distributed resource management system and generate first distributed resource graphs according to the current usage information of the resources. RMs obtain identification information of the RMs and generate second distributed resource graphs according to the identification information. RCs obtain a resource expense information regarding resource expense required by a plurality of jobs and generates third distributed resource graphs according to the resource expense information. A compound distributed resource graph (CDRG) is obtained by combining the first, second, and third distributed resource graphs and then the jobs to be performed by a corresponding amount of the resources within the distributed resource management system are determined according to the CDRG.
Abstract:
A capacitive touch pad includes a sensor layer for sensing a touch of an object and a dummy trace below the sensor layer. The dummy trace is sensed to obtain a sensed value while the dummy trace is shielded by the sensor layer from interference of the object such that the sensed value reflects only environmental variation. Therefore, environmental variation can be identified depending on the sensed value, and the sensor layer can be calibrated properly.
Abstract:
A slide rail assembly includes a first slide rail having a release portion, a second slide rail having a slot, a third slide rail having a stop portion, a latch member slidably attached to a slot of the second slide rail, and a resilient member connected to the latch member for returning the latch member to an original position. The latch member includes a first engaging portion and a second engaging portion located at opposite sides of the second slide rail. Wherein the first engaging portion engages with the stop portion of the third slide rail such that the third slide rail is capable of driving the second slide rail to slide together relative to the first slide rail. The release portion of the first slide rail is capable of engaging with the second engaging portion to bias the latch member to slide along the slot to release the third slide rail from the first engaging portion.
Abstract:
A slide rail assembly includes an outer slide rail having a protrusion, an intermediate slide rail having a slot, an inner slide rail having a release portion, a latch member slidably attached to a slot of the intermediate slide rail, and a resilient member connected to the latch member for returning the latch member to an original position. The latch member includes first and second engaging portions located at opposite sides of the intermediate slide rail respectively. The protrusion is capable of engaging with the second engaging portion of the latch member to stop the intermediate slide rail sliding into the outer slide rail together with the inner slide rail. The release portion of the inner slide rail is capable of engaging with the first engaging portion to bias the latch member to slide along the slot to release the intermediate slide rail from the outer engaging portion.
Abstract:
A slide rail assembly includes a first slide rail having a release portion, a second slide rail having a slot, a third slide rail having a stop portion, a latch member slidably attached to a slot of the second slide rail, and a resilient member connected to the latch member for returning the latch member to an original position. The latch member includes a first engaging portion and a second engaging portion located at opposite sides of the second slide rail. Wherein the first engaging portion engages with the stop portion of the third slide rail such that the third slide rail is capable of driving the second slide rail to slide together relative to the first slide rail. The release portion of the first slide rail is capable of engaging with the second engaging portion to bias the latch member to slide along the slot to release the third slide rail from the first engaging portion.
Abstract:
A waveform dividing method for a capacitive touch control device saves a first waveform in a direction, and then saves a multi-touch waveform in the direction when another object further touches the capacitive touch control device. If the multi-touch waveform is identified as having waveform overlapping, a second waveform is extracted from the difference between the multi-touch waveform and the first waveform. By calculating with the second waveform, accurate positioning of the objects on the capacitive touch control device can be achieved.
Abstract:
A capacitive touch pad includes a sensor layer for sensing a touch of an object and a dummy trace below the sensor layer. The dummy trace is sensed to obtain a sensed value while the dummy trace is shielded by the sensor layer from interference of the object such that the sensed value reflects only environmental variation. Therefore, environmental variation can be identified depending on the sensed value, and the sensor layer can be calibrated properly.
Abstract:
A waveform dividing method for a capacitive touch control device saves a first waveform in a direction, and then saves a multi-touch waveform in the direction when another object further touches the capacitive touch control device. If the multi-touch waveform is identified as having waveform overlapping, a second waveform is extracted from the difference between the multi-touch waveform and the first waveform. By calculating with the second waveform, accurate positioning of the objects on the capacitive touch control device can be achieved.
Abstract:
A capacitive touchpad includes a first trace established by a string of first rhombic sensing cells successively in a first direction and a plurality of singular second rhombic sensing cells branched in a second direction from the string of first rhombic sensing cells, and a second trace established by a string of third rhombic sensing cells successively in the first direction and a plurality of singular fourth rhombic sensing cells branched in the second direction from the string of third rhombic sensing cells, and the second rhombic sensing cells are interleaved with the fourth rhombic sensing cells in the first direction. The capacitive touchpad is thus improved in its linearity.