Abstract: Disclosed is a vehicle air conditioner capable of increasing the aft flow effective region of an inner flow path by reducing the space occupied by support parts of doors for opening/closing a plurality of regions. The vehicle air conditioner comprises: an air-conditioning case in which an air flow path is formed; and a cooling heat exchanger and a heating heat exchanger provided in the air flow path of the air-conditioning case, wherein the air flow path is partitioned and divided into a plurality of regions, and has a plurality of doors for opening/closing each region and a shaft for driving the doors, and the distance between one door and the shaft is different from the distance between another door and the shaft.

Abstract: A multi-mode coordinate measuring machine system can be configured to measure coordinates in a variety of ways with a certain set of components. For example, an articulated arm coordinate measuring machine can measure coordinates on an object using a contact probe or a non-contact measuring device mounted on the articulated arm. Then, a user can remove the non-contact measuring device from the articulated arm coordinate measuring machine, and take additional measurements of the object that can be aligned with measurements taken by the articulated arm and devices attached thereto.

Abstract: A multi-mode coordinate measuring machine system can be configured to measure coordinates in a variety of ways with a certain set of components. For example, an articulated arm coordinate measuring machine can measure coordinates on an object using a contact probe or a non-contact measuring device mounted on the articulated arm. Then, a user can remove the non-contact measuring device from the articulated arm coordinate measuring machine, and take additional measurements of the object that can be aligned with measurements taken by the articulated arm and devices attached thereto.

Abstract: A multi-mode coordinate measuring machine system can be configured to measure coordinates in a variety of ways with a certain set of components. For example, an articulated arm coordinate measuring machine can measure coordinates on an object using a contact probe or a non-contact measuring device mounted on the articulated arm. Then, a user can remove the non-contact measuring device from the articulated arm coordinate measuring machine, and take additional measurements of the object that can be aligned with measurements taken by the articulated arm and devices attached thereto.

Abstract: An articulating probe for use with a coordinate measuring machine comprises an attachment portion, a measuring portion, and at least one articulating joint. The attachment portion can be configured for attachment to a coordinate measuring machine. The measuring portion can be configured to contact an object to be measured by the coordinate measuring machine. The at least one articulating joint can be configured to allow rotation between the attachment portion and the measuring portion. Further, the articulating joint can comprise an angular sensor configured to measure an angle of the joint.

Abstract: A multi-mode coordinate measuring machine system can be configured to measure coordinates in a variety of ways with a certain set of components. For example, an articulated arm coordinate measuring machine can measure coordinates on an object using a contact probe or a non-contact measuring device mounted on the articulated arm. Then, a user can remove the non-contact measuring device from the articulated arm coordinate measuring machine, and take additional measurements of the object that can be aligned with measurements taken by the articulated arm and devices attached thereto.

Abstract: A multi-mode coordinate measuring machine system can be configured to measure coordinates in a variety of ways with a certain set of components. For example, an articulated arm coordinate measuring machine can measure coordinates on an object using a contact probe or a non-contact measuring device mounted on the articulated arm. Then, a user can remove the non-contact measuring device from the articulated arm coordinate measuring machine, and take additional measurements of the object that can be aligned with measurements taken by the articulated arm and devices attached thereto.

Abstract: An articulating probe for use with a coordinate measuring machine comprises an attachment portion, a measuring portion, and at least one articulating joint. The attachment portion can be configured for attachment to a coordinate measuring machine. The measuring portion can be configured to contact an object to be measured by the coordinate measuring machine. The at least one articulating joint can be configured to allow rotation between the attachment portion and the measuring portion. Further, the articulating joint can comprise an angular sensor configured to measure an angle of the joint.

Abstract: An articulating probe for use with a coordinate measuring machine comprises an attachment portion, a measuring portion, and at least one articulating joint. The attachment portion can be configured for attachment to a coordinate measuring machine. The measuring portion can be configured to contact an object to be measured by the coordinate measuring machine. The at least one articulating joint can be configured to allow rotation between the attachment portion and the measuring portion. Further, the articulating joint can comprise an angular sensor configured to measure an angle of the joint.

Abstract: A multi-mode coordinate measuring machine system can be configured to measure coordinates in a variety of ways with a certain set of components. For example, an articulated arm coordinate measuring machine can measure coordinates on an object using a contact probe or a non-contact measuring device mounted on the articulated arm. Then, a user can remove the non-contact measuring device from the articulated arm coordinate measuring machine, and take additional measurements of the object that can be aligned with measurements taken by the articulated arm and devices attached thereto.

Abstract: A flaw detection system includes a CMM having a base and one or more transfer members, one or more articulation members connecting the one or more transfer members to the base, and a flaw detection sensor at a distal end, the CMM being configured to measure a location of the flaw detection sensor, and a processor configured to correlate the location of the flaw detection sensor as measured by the CMM with data detected by the flaw detection sensor.

Abstract: An articulating probe for use with a coordinate measuring machine comprises an attachment portion, a measuring portion, and at least one articulating joint. The attachment portion can be configured for attachment to a coordinate measuring machine. The measuring portion can be configured to contact an object to be measured by the coordinate measuring machine. The at least one articulating joint can be configured to allow rotation between the attachment portion and the measuring portion. Further, the articulating joint can comprise an angular sensor configured to measure an angle of the joint.

Abstract: A flaw detection system includes a CMM having a base and one or more transfer members, one or more articulation members connecting the one or more transfer members to the base, and a flaw detection sensor at a distal end, the CMM being configured to measure a location of the flaw detection sensor, and a processor configured to correlate the location of the flaw detection sensor as measured by the CMM with data detected by the flaw detection sensor.

Abstract: A method of reconstructing a tomogram of an X-ray apparatus. The tomogram reconstructing method includes obtaining model information and a transmission image of a subject. A tomogram is reconstructed from the transmission image using the model information. The reconstructed tomogram obtained is then displayed.

Abstract: A method of reconstructing a tomogram of an X-ray apparatus. The tomogram reconstructing method includes obtaining model information and a transmission image of a subject. A tomogram is reconstructed from the transmission image using the model information. The reconstructed tomogram obtained is then displayed.

Abstract: Disclosed herein is a battery inspection system. The battery inspection system includes a battery feeding conveyor for feeding batteries to be inspected. One or more transfer robots are positioned near the rear end of the battery feeding conveyor for transferring batteries fed through the battery feeding conveyor to inspection and discharge positions. An X-ray generator is positioned under the transfer robots for applying X-rays to batteries transferred by the transfer robots. A satisfactory battery discharging conveyor is positioned near the transfer robots for discharging satisfactory battery moved by the transfer robots and having been inspected. A defective battery discharging robot is positioned near the front end of the satisfactory battery discharging conveyor for removing defective batteries from batteries moving along the satisfactory battery discharging conveyor and having been inspected.

Abstract: Disclosed herein is a battery inspection system. The battery inspection system includes a battery feeding conveyor for feeding batteries to be inspected. One or more transfer robots are positioned near the rear end of the battery feeding conveyor for transferring batteries fed through the battery feeding conveyor to inspection and discharge positions. An X-ray generator is positioned under the transfer robots for applying X-rays to batteries transferred by the transfer robots. A satisfactory battery discharging conveyor is positioned near the transfer robots for discharging satisfactory battery moved by the transfer robots and having been inspected. A defective battery discharging robot is positioned near the front end of the satisfactory battery discharging conveyor for removing defective batteries from batteries moving along the satisfactory battery discharging conveyor and having been inspected.

Abstract: Disclosed herein is a three-dimensional image constructing method using an X-ray apparatus. In the three-dimensional image constructing method, a construction space of a subject and information for the construction space are set. Thereafter, a plurality of transmission images of the subject are obtained. The data of the construction space are calculated on the basis of the information for the construction space set at the setting step and the transmission images obtained at the image obtaining step. The construction space is constructed on the basis of the data calculated at the image processing step.