Abstract: A mechanism for holding surgical instruments includes a carrier mounted on a machine tool and multiple holding modules mounted on the carrier. At least one of the holding modules is selected to be used during surgical operation. A swing element of the selected holding module enables a guidance sleeve to be swung to allow a guidance hole on the guidance sleeve to face toward a surgical operation region. The guidance sleeve is provided to hold one surgical instrument for surgical operation.

Abstract: The present invention provides a probe apparatus, which comprises a signal transmission device, a probe, and a bottom fixing device. The signal transmission device includes a first transmission part and a second transmission part. An end of the probe is connected electrically below the second transmission part. The bottom fixing device is disposed below the signal transmission device. An end of the bottom fixing device includes a first penetrating hole and a first recess is disposed below the end. The probe passes through the first penetrating hole of the bottom fixing device. The probe is located in the first recess. The bottom fixing device reinforces the mechanical strength of the signal transmission device so that the width of the signal transmission device can be reduced. Thereby, the benefit of high-density arrangement of the probe apparatus can be achieved.

Abstract: The present invention provides a probe apparatus, which comprises a signal transmission device, a probe, and a bottom fixing device. The signal transmission device includes a first transmission part and a second transmission part. An end of the probe is connected electrically below the second transmission part. The bottom fixing device is disposed below the signal transmission device. An end of the bottom fixing device includes a first penetrating hole and a first recess is disposed below the end. The probe passes through the first penetrating hole of the bottom fixing device. The probe is located in the first recess. The bottom fixing device reinforces the mechanical strength of the signal transmission device so that the width of the signal transmission device can be reduced. Thereby, the benefit of high-density arrangement of the probe apparatus can be achieved.

Abstract: A mechanism for holding surgical instruments includes a carrier mounted on a machine tool and multiple holding modules mounted on the carrier. At least one of the holding modules is selected to be used during surgical operation. A swing element of the selected holding module enables a guidance sleeve to be swung to allow a guidance hole on the guidance sleeve to face toward a surgical operation region. The guidance sleeve is provided to hold one surgical instrument for surgical operation.

Abstract: A calibration device for surgical instruments includes a base, an instrument holder and at least one reference frame marker, the instrument holder is pivotally mounted on the base, and the reference frame marker is mounted on the base. The surgical instrument can be inserted into an insertion hole of the instrument holder to rotate or swing selectively on the base such that a signal processor of a surgical navigation system can receive coordinate signals from the reference frame marker and at least one coordinate marker mounted on the surgical instrument to calibrate the surgical instrument.

Abstract: A device for limb detection includes a circular guide means and a carrier. The carrier is provided to carry an image detector and the circular guide means includes a slide mechanism integrated to the carrier. The slide mechanism and the carrier can move back and forth around a horizontal axis passing through the circular guide means such that they are beneficial for the image detector to detect the limb.

Abstract: A method for identifying and locating at least one nerve in a target region is disclosed. In the method, an image detector is used to scan the target region according to a predicted nerve trend from a nerve identification program and capture 2D cross-sectional images of subregions of the target region, and the nerve identification program is utilized to identify' whether the 2D cross-sectional images are captured of the target nerve. When the nerve identification program identifies the 2D cross-sectional images are the images of the target nerve, a 3D image showing a 3D nerve structure is constructed from the 2D cross-sectional images based on 3D image reconstruction technique.

Abstract: The system includes a stand surrounding a working area, a signal detector receiving a signal generated by the wire, and a positioning module disposed on the stand. The positioning module is configured to drive the signal detector moving forward and backward on a two-dimensional plane in the working area. The system also includes a computer system electrically connected to the signal detector and the positioning module. The compute system receives the signal from the signal detector, generates position information according to the signal, and transmits the position information to the positioning module, such that the positioning module moves the signal detector to a position corresponding to a position of the wire in the blood vessel according to the position information.

Abstract: The optical sensing device is provided for receiving and transmitting a light signal. A light working area is defined according to a measurement range of the light signal. The optical sensing device includes a body, a transformation part and a signal unit. A light emitting unit and a light receiving unit are disposed at an end of the body, and the light emitting unit and the light receiving unit face the light working area. The transformation part pivots on the body. A light processing unit is disposed on the transformation part, and the light processing unit is capable of locating in the light working area for transmitting or receiving the light signal. The signal unit is configured for transmitting and processing the light signal.

Abstract: A universal C-ARM calibration seat includes a base, at least three action units, and a driving and positioning device. The base is annular and has a central axis. The base includes a correction plate mounting area. The at least three action units is mounted on a side of the base opposite to the correction plate mounting area. Each of the at least three action units includes a sliding member. The driving and positioning device is coaxially mounted to and rotatable relative to the base about the central axis. The driving and positioning device includes a rotating unit configured to actuate each sliding member. When the driving and positioning device rotates relative to the base, the rotating unit actuates each sliding member to simultaneously move toward the central axis.

Abstract: A universal C-ARM calibration seat includes a base, at least three action units, and a driving and positioning device. The base is annular and has a central axis. The base includes a correction plate mounting area. The at least three action units is mounted on a side of the base opposite to the correction plate mounting area. Each of the at least three action units includes a sliding member. The driving and positioning device is coaxially mounted to and rotatable relative to the base about the central axis. The driving and positioning device includes a rotating unit configured to actuate each sliding member. When the driving and positioning device rotates relative to the base, the rotating unit actuates each sliding member to simultaneously move toward the central axis.

Abstract: A multiple wavelength optical system includes plural solid state light sources, an optical diffuser, a lens assembly, and at least one photodetector. The solid state light sources have different wavelength ranges respectively. The optical diffuser has an incident surface and an exit surface opposite to the incident surface. The solid state light sources are disposed opposite the incident surface, and the lens assembly is disposed opposite the exit surface. Each of the solid state light sources faces the incident surface in the same direction. The lights of the solid state light sources enter the optical diffuser and exit from the exit surface, and then are focused by the lens assembly. Finally, the focused lights are projected on a surface of an object. At least one photodetector receives the reflected lights and the penetrating lights from the surface of the object.

Abstract: The optical sensing device is provided for receiving and transmitting a light signal. A light working area is defined according to a measurement range of the light signal. The optical sensing device includes a body, a transformation part and a signal unit. A light emitting unit and a light receiving unit are disposed at an end of the body, and the light emitting unit and the light receiving unit face the light working area. The transformation part pivots on the body. A light processing unit is disposed on the transformation part, and the light processing unit is capable of locating in the light working area for transmitting or receiving the light signal. The signal unit is configured for transmitting and processing the light signal.

Abstract: The system includes a stand surrounding a working area, a signal detector receiving a signal generated by the wire, and a positioning module disposed on the stand. The positioning module is configured to drive the signal detector moving forward and backward on a two-dimensional plane in the working area. The system also includes a computer system electrically connected to the signal detector and the positioning module. The compute system receives the signal from the signal detector, generates position information according to the signal, and transmits the position information to the positioning module, such that the positioning module moves the signal detector to a position corresponding to a position of the wire in the blood vessel according to the position information.

Abstract: The imaging system includes a wire, a second signal transmission unit and a computer system. At least one first signal transmission unit is disposed on the wire which is configured to enter a blood vessel in a human body. The second signal transmission unit is disposed outside of the human body. The computer system is electrically connected to the second signal transmission unit. The first signal transmission unit emits a first signal, the second signal transmission unit receives the first signal, and the computer system generates a first image according to the first signal. The second signal transmission unit emits a second signal, and receives a reflection signal corresponding to the second signal. The computer system generates a second image according to the reflection signal, and merges the first image with the second image as a third image for rendering a position of the wire in the human body.

Abstract: The system comprises an optical fiber, a light emitting module, an ultrasound detector and an imaging system. The optical fiber has a first end and a second end. The second end of the optical fiber is configured to enter a blood vessel of a human body. The light emitting module emits a laser ray into the first end of the optical fiber, and the laser ray diffuses into a human tissue through the optical fiber to generate an ultrasound signal. The ultrasound detector is disposed corresponding to the second end of the optical fiber for receiving the ultrasound signal. The imaging system is coupled to the ultrasound detector and generates an image with respect to the blood vessel according to the ultrasound signal.

Abstract: A sensor package structure includes a substrate, a sensing member, a shielding member, a metallic wire, and an encapsulating compound. The substrate includes a die bonding zone and a wiring zone. The sensing member is mounted on the die bonding zone and includes a sensing zone, a carrying zone arranged around the sensing zone, and a connecting zone arranged outside of the carrying zone. The shielding member includes a translucent covering portion and a supporting portion connected to a peripheral portion of the covering portion. The supporting portion having a coefficient of thermal expansion less than 10 ppm/° C. is fixed on the carrying zone. The metallic wire connects the wiring zone and the connecting zone. The encapsulating compound is disposed on the wiring zone and covers a peripheral side of the sensing member, the connecting zone, and a peripheral side of the shielding member.

Abstract: A sensor package structure includes a substrate, a sensing member, a shielding member, a metallic wire, and an encapsulating compound. The substrate includes a die bonding zone and a wiring zone. The sensing member is mounted on the die bonding zone and includes a sensing zone, a carrying zone arranged around the sensing zone, and a connecting zone arranged outside of the carrying zone. The shielding member includes a translucent covering portion and a supporting portion connected to a peripheral portion of the covering portion. The supporting portion having a coefficient of thermal expansion less than 10 ppm/° C. is fixed on the carrying zone. The metallic wire connects the wiring zone and the connecting zone. The encapsulating compound is disposed on the wiring zone and covers a peripheral side of the sensing member, the connecting zone, and a peripheral side of the shielding member.

Abstract: One or more methods of forming shallow trench isolation (STI) and resulting semiconductor arraignments are provided. A method of forming STI includes forming a nitride liner in a first opening and second opening and recessing the nitride liner in the first opening and second opening while forming an oxide structure in the first opening and second opening, thus forming a first STI region in the first opening and a second STI region in the second opening. A semiconductor arraignment includes a first STI region in an active area and a second STI region in an isolation area, where a first recessed nitride layer height in the first STI region is different than a second recessed nitride layer height in the second STI region.

Abstract: A puncturing instrument is provided to overcome the inconvenience in performing the puncturing operation due to the inability to see the internal structure of a patient. The puncturing instrument includes a first tube, a second tube and a light-guiding member is disclosed. The first tube includes two first openings. One of the two first openings forms a sharp portion. The second tube is received in the first tube and includes two second openings and a gas outlet. One of the two second openings is provided with a lens, and the gas outlet is adjacent to the lens and the sharp portion of the first opening. The light-guiding member is received in the second tube. Furthermore, a puncturing equipment using the puncturing instrument and a signal processing method of the puncturing equipment are also disclosed.