20 results about "Insertion device" patented technology

Arrangement (26) for generating EUV radiation or for operating nuclear fusion by irradiating a target material (28) with a plurality of laser beams (20, 22, 24). The arrangement (26) comprises a target chamber (32) having an interior (34) with a target area (36) for irradiating the target material (28) with the plurality of laser beams (20, 22, 24), an insertion device (38) for introducing the target material (28) into the target area (36), and a manipulation device (46) for shaping and / or positioning the target material (28) in the target area (36).

Arrangement (16) for generating EUV radiation or for operating nuclear fusion by irradiating a target material (18) with a laser beam (14). The arrangement comprises a target chamber (20) which has an interior (22) with a target area (24) for irradiating the target material (18) with the laser beam (14), an insertion device (26) for introducing the target material (18) into the target area (24), and a manipulation device (34) for shaping and / or positioning the target material (18) in the target area (24).

This invention provides a vacuum fiber optic insertion device and a vacuum equipment, relating to the field of vacuum connector technology. The fiber optic insertion device includes a first mounting body, a second mounting body, and a light-transmitting element. The first mounting body has at least one first through-hole for inserting an optical fiber, and the second mounting body has a second through-hole for inserting an optical fiber. The first mounting body is detachably disposed on the second mounting body, and the first through-hole corresponds to the second through-hole. The light-transmitting element is correspondingly disposed between the first through-hole, the second through-hole, or the first and second mounting bodies, enabling a corresponding seal between the first and second through-holes, and allowing the optical fiber inserted in the first through-hole and the optical fiber inserted in the second through-hole to communicate with each other through the light-transmitting element. The light-transmitting element achieves both vacuum sealing and fiber-optic communication, thereby reducing costs and resulting in less optical signal attenuation compared to reflection or through-beam methods.

In an installation process of a lens module of a device manufactured through a process in which the lens module such as an optical sensor is installed in a lens housing, in order to provide a technology capable of increasing a manufacturing yield of the device by allowing a manual work of an operator or a complicated epoxy fixing process to be completely unnecessary, according to one embodiment of the present invention, a precision insertion device for an insertion line of a lens module includes: a lens housing fixing unit for fixing a lens housing, which has an insertion space into which a lens module having a cylindrical shape, having an end side coupled with a lens, and formed therein with an empty space is inserted, and a through-line formed through the lens housing to allow one region of an outer surface of the lens housing to be connected to the insertion space; a gripper inserted into the lens module through an opening formed on an end side, which is opposite to the end side on which the lens of the lens module having the cylindrical shape is installed, so as to apply an external force toward an outer surface of a cylinder of the lens module to support the lens module, and moved in a first direction, which is a longitudinal direction of the insertion space, to insert the lens module into the insertion space; a focal point detection module having a capturing angle in a direction toward the lens along the empty space of the lens module so as to detect a focal point of the lens; and a control unit for controlling the movement of the gripper in the first direction according to a capturing result of the focal point detection module.

The present invention relates to an insertion device and its use.

The present application relates to the technical field of rock mass displacement detection, in particular to a high-precision rock mass displacement detection device and method for geological experiments, which device comprises a mounting pipe, the front end of the mounting pipe is provided with a clamping mechanism, the clamping mechanism is provided with a lifting block, the lifting block is provided with a linkage mechanism, the linkage mechanism is provided with two pull rod pieces, the two pull rod pieces are jointly provided with an adjusting mechanism, and the adjusting mechanism is provided with a plurality of slide rods; the method comprises the following steps: rock mass drilling, detection equipment insertion, equipment installation and detection operation. The first and second infrared distance detection components are arranged to accurately detect the position changes of the positioning block and the abutting rod, dynamically obtain the rock mass displacement, and the equipment is convenient to quickly install, can automatically perform detection operation after installation, realizes multi-point accurate detection, and improves the detection quality.

To provide a workpiece insertion device advantageous for storing a workpiece in a cavity in a stable attitude.SOLUTION: A workpiece insertion device 1 for inserting a workpiece 100 into a cavity side 20a of a carrier tape 20 includes a base 11 having an inclined surface side 11s, an index table 10 having a plurality of accommodating portion side walls and extending along the inclined surface side 10a, a guide portion 15 having a guide surface 51, a workpiece moving device 70 for applying a propulsive force to the workpiece 100 so as to move the workpiece 100 in the accommodating portion side 11s positioned at a discharge position side P1 toward the cavity side 10a positioned at a feed position side 11s via a workpiece path R defined by the inclined surface side P2 and the guide surface 51, and an attitude correcting magnet 55 for applying a magnetic force acting in a pulling direction D including upward components to a leading-side end side 20a of the workpiece 100 at the feed position side. 102a P2.SELECTED DRAWING: Figure 6

An insertion device comprises an insertion section, the insertion section including a distal portion, an operation section located on a proximal end side of the insertion section, a channel located in the insertion section and communicating with the distal portion, the channel including a transformable member on a distal end side of the channel, and a transformation unit, wherein a shape of the transformable member is changeable by operation of the operation section.

This invention provides a pin insertion mechanism and method, including a pin-separating and feeding device, a vision-guided pin insertion device, a pin-aligning device, and an intelligent control system. The pin-separating and feeding device arranges and delivers pins to the pin-separating assembly via a vibratory feeder and a linear vibrating table, achieving one-to-one separation. The feeding assembly uses a rotary cylinder, a sliding cylinder, and a clamping cylinder to transfer the pins to the feed tube. The vision-guided pin insertion device uses an industrial camera and a ring light source to acquire the position information of the pin holes on the insertion plate. Based on this, the intelligent control system plans the optimal insertion path and controls the horizontal and vertical drive devices to adjust the position of the pin insertion assembly for precise insertion. The pin-aligning device ensures that the pins are fully pressed into the insertion plate. This invention achieves a high degree of automation and intelligence in the pin insertion process, significantly improving pin insertion accuracy, efficiency, and system stability. In particular, it employs an innovative design for pin isolation, ensuring that only one pin is separated at a time, avoiding the problem of multiple pins clogging.

This invention discloses a five-axis radio frequency probe insertion device, including a base, an imaging device on one side of the base, and a radio frequency probe above the imaging device; a probe adjustment mechanism is provided between the radio frequency probe and the base, the probe adjustment mechanism including: an adjustment plate constructed with the optical axis of the imaging device as a reference, the adjustment plate having circular holes corresponding to the optical axis; this invention belongs to the field of radio frequency testing technology, and the technical effect achieved is: integrating three-axis translation, rotation around the optical axis, radial eccentricity adjustment and end-point pitch adjustment on the same central reference, constructing a five-axis linkage adjustment system; three-axis coarse adjustment achieves macroscopic positioning, the rotation layer and the radial layer constitute a polar coordinate adjustment system, accurately guiding the probe to any coordinate point within the field of view, and the angle fine adjustment layer independently corrects the probe contact posture.

The utility model relates to an auxiliary wafer inserting device which comprises an auxiliary adjusting piece and a tidying wheel, when a silicon wafer is clamped in a silicon wafer clamping groove of the auxiliary adjusting piece, it can be guaranteed that the median plane of the silicon wafer and the median plane of a flower basket are coplanar, namely, the silicon wafer is located in the middle of the left and right; meanwhile, as the distance between the bottom wall of the silicon wafer clamping groove and the bottom of the tooth groove of the flower basket is half of the difference value between the depth of the tooth groove and the thickness of the silicon wafer, the silicon wafer can be ensured to be located in the middle in the vertical direction when the silicon wafer is clamped in the silicon wafer clamping groove, namely, the silicon wafer is clamped in the middle in the flower basket, and therefore the silicon wafer can be placed in the middle by moving the tidying wheel. When the silicon wafer is inserted subsequently, the position of the silicon wafer is restrained by clamping the silicon wafer with the regularizing wheel, so that the silicon wafer can be ensured to be in the middle position when the silicon wafer is put into a basket, the accuracy and the efficiency of putting the silicon wafer into the basket are improved, and the risks of damage, fragmentation and blockage of the silicon wafer are reduced.

The utility model belongs to the technical field of optical modules, and particularly discloses a plug-in type portable optical module, which comprises an optical module body, accommodating grooves arranged on the outer walls of two opposite sides of the optical module body and elastic locking mechanisms positioned in the accommodating grooves, and the elastic locking mechanisms comprise supporting sheets elastically connected in the accommodating grooves on the two sides. Locking protruding points are arranged on the outer walls of the sides, away from each other, of the supporting pieces on the two sides, and the supporting pieces on the two sides extend to the front side of the optical module body. The optical module can be directly inserted into the equipment socket, the locking convex points and the concave points are locked in an inserted mode, installation is convenient, and when disassembly is needed, the front ends of the supporting pieces on the two sides are pinched by two fingers of one hand, so that the supporting pieces contract towards the interior of the containing groove, meanwhile, the supporting pieces are pulled outwards, and the optical module is pulled out of the equipment socket. The dismounting operation can be realized by a single hand, the operation is convenient and fast, and the optical module is not easy to bend.

An insertion device comprises an insertion section, the insertion section including a distal portion, an operation section located on a proximal end side of the insertion section, a channel located in the insertion section and communicating with the distal portion, the channel including a transformable member on a distal end side of the channel, and a transformation unit, wherein a shape of the transformable member is changeable by operation of the operation section.

An insert device (1) for a lighting device, the insert device (1) comprising at least one side wall (21, 22) arranged along a bottom part (4) of said insert device (1) and extending from the bottom part (4) towards a top part (3) of said insert device (1), wherein the bottom part (4) is provided with an outer surface (5), and is configured to accommodate at least one light source (15) configured to, in operation, emit light away from the bottom part (4) through a light exit opening (6). The insert device (1) comprises the plurality of partition wall elements (9) arranged perpendicular the bottom part (4) of the insert device (1) along the side wall (21, 22), and configured to provide a plurality of consecutively arranged cavities (11) between the partition wall elements (9) and the side wall (21, 22) and the bottom part (4). The side wall (21, 22) delimit a respective slit (71, 72) having a slit bottom end (18) at or in the bottom part (4), and the slit (71, 72) is defined by a slit length and a slit width, and extends along the side wall (21, 22), such that the slit (71, 72) forms a holder for a reflective material sheet (81, 82).

The invention relates to an automatic plug-in mounting device for a multi-channel antenna radiation unit, which is used for downwards plugging the antenna radiation unit onto an antenna combination, and comprises a workbench used for supporting the whole automatic plug-in mounting device for the multi-channel antenna radiation unit; the motion execution system is arranged on the workbench and is used for realizing motion positioning required by automatic plug-in mounting; the assembly execution system is arranged on the motion execution system and is used for realizing the functions of sucking, positioning, pressing, fixing and detecting the antenna radiation unit; the assembly positioning tool is arranged on the workbench and is used for placing an antenna combination; the material placing tool is arranged on the workbench and is used for placing an antenna radiation unit; the screw feeding system is arranged on the workbench and used for arranging and supplying screws. According to the invention, high-reliability and safe plug-in mounting of the antenna radiation unit is realized, and the advantages are obvious.

Disclosed embodiments include apparatuses, systems, and methods for securing a control device of an elongated instrument to an insertion device. In an illustrative embodiment, an apparatus includes a coupling that is configured to join the control device with a port of an insertion device used to convey the elongated instrument to a target location. A bushing extends from the coupling and is configured to be inserted within an opening in the port of the insertion device. The elongated instrument is movably extendable through the bushing. A first sealing member is disposed on an outer surface of the bushing to seal the outer surface of the bushing against an inner surface of the opening in the port. A second sealing member is disposed on an outer surface of the elongated instrument to movably seal an outer surface of the elongated instrument.

The present disclosure provides a workpiece insertion device that facilitates storage of a workpiece in a stable posture in a chamber. A workpiece insertion device (1) for inserting a workpiece (100) into a chamber (20a) of a carrier tape (20) is provided with: a base (11) having an inclined surface (11s); an indexing table (10) having a plurality of housing sections (10a) and extending along the inclined surface (11s); a guide part (15) having a guide surface (51); a workpiece moving device (70) that applies a propulsive force to the workpiece (100) so that the workpiece (100) positioned in the storage section (10a) at the discharge position (P1) moves toward the chamber (20a) positioned at the supply position (P2) via a workpiece path (R) defined by the inclined surface (11s) and the guide surface (51); and a posture correction magnet (55) that applies, at the supply position (P2), a magnetic force acting in the attraction direction (D) including the upper component to the tip end (102a) of the workpiece (100).