CN207605019U - Operation tridimensional orienting headstock - Google Patents
Operation tridimensional orienting headstock Download PDFInfo
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- CN207605019U CN207605019U CN201720695409.9U CN201720695409U CN207605019U CN 207605019 U CN207605019 U CN 207605019U CN 201720695409 U CN201720695409 U CN 201720695409U CN 207605019 U CN207605019 U CN 207605019U
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Abstract
The utility model discloses a kind of operation tridimensional orienting headstocks, including semi-circular orientation bow with a scale and sliding block, semi-circular orientation bow bipod is connected with skull fixing glue pedestal, sliding block and semi-circular orientation bow are sliding, and sliding block is equipped with the locking bolt for being fixed, the half opening guider insertion groove of a placement separate type guider, and the center of circle of the axes alignment semi-circular orientation bow of guider insertion groove are offered on the sliding block.The utility model uses new stereotaxis principle, completely new three-dimensional coordinate system is devised using the characteristics of CT and MR, conventional stereo direction finder is avoided to need installation positioning basic ring in advance and carry out CT and MR scannings again, Use of Neuronavigation is avoided to need to paste scalp Marker in advance, operating robot is also avoided to need to obtain CT and MR scan datas, preoperative preparation is simplified, effectively shortens operation time, while greatly reducing medical treatment cost.
Description
Technical field
The utility model is related to medical fields, and in particular to a kind of operation tridimensional orienting headstock.
Background technology
Existing localization method includes mainly manually puncturing, utilizing the framed frame stereotactic apparatus of tradition, Use of Neuronavigation or operation
The methods of robot, wherein:
The advantages of unarmed piercing method is fast and easy, but is operated because relying primarily on personal experience, the disadvantage is that smart
True property is poor, fault rate is high, is not easy to be grasped and promoted, and especially has the case where surgical experience neurosurgeon all the year round in shortage
Under, surgical effect is seriously affected, or even increase operation risk.
Horsley and Clarke in 1908 starts three-dimensional Bratn Stereotactic, and Spiegel in 1945 and Wycis are completed
First time human brain stereotactic surgery since the dawn of human civilization, brain stereotactic is studied history above, and breakthrough is to be happened at 1979 for the second time,
Brown utility models are registrated with positioning framework together with CT scan, are used for nervous system non-functional disease.China is 1993
The high-precision brain stereotactic that year can be connect by the First of Shenzhen Anke Hi-Tech Co., Ltd's production with CT or MR
Instrument puts into Clinical practice, has greatly pushed the application and popularization of clinical horseley-Clarke technique at home.External good direction finder has:
Leksell orientation systems, BRW/CRW orientation systems, Todd-well orientation systems etc.;The country has Shenzhen peace section high-tech limited
The ASA-601 of company, 602 direction finders etc..These framves are widely used in clinic, and great advantage is that positioning accuracy is (1 millimeter high
Rank).But its disadvantage is also clearly:It needs that basic ring is first installed, then carries out CT or MRI scan, then also to there is the soft of profession
Part calculates target coordinate, and positioning preparation needs take a significant amount of time, and operating process is extremely complex, is not easy to be grasped, and
Equipment is expensive, and all at 200,000 yuan or more, million yuan of needs of import or more are limited in vast base the domestic price of complete equipment
Hospital promotes the use of.
Neuronavigation system, also referred to as frameless (Fameless) brain stereotactic or image are led as neurosurgery
(Image-Guided Neurosurgery).Robert in 1986 and its colleague introduce one kind and are combined with CT images, microscope
Frameless directional operation system, this brand-new idea one occurs, and evokes the heat for manufacturing and designing frameless directional operation rapidly
There are a series of frameless directional operation systems in the case where engineering science and technology circle and manufacturer combine in tide.It is broadly divided into two classes:Joint
Arm system (1987 by Watanabe utility models) and digitizer system.It is mainly digitizer system currently on the market,
Point or less three kinds:1) sound wave digitizer:Roberts in 1986 report for the first time using sound wave digitizer tracking surgical instrument or
Microscopical method, to start Frameless stereotactic neurosurgery.2) infrared digital instrument:Infrared digital instrument
Navigation is the U.S. was applied to clinic in 1992, that is first optical operation navigation system in the world.It is most of currently on the market
Product is optical operation navigation system, and China is to be introduced the optical operation navigation system in the U.S. by Shanghai Huashan Hospital for 1997
The country, the First operation guiding system that China voluntarily produces are to be produced by Shenzhen Anke Hi-Tech Co., Ltd for 1999
ASA-610T operation guiding systems and optical operation navigation system.3) electromagnetic digital instrument:Kato reports electricity within 1991
The design principle of magnetic digital instrument and clinical application, the system is mainly by 3 D electromagnetic digitizer, three-dimensional magnetic source, magnetic field induction
Device and computer workstation are constituted.Although Use of Neuronavigation eliminates frame and keeps positioning operation more flexible, but equipment is more high
It is expensive, and operation is same complicated time-consuming, and clinic is difficult to popularize.
The operating robot for being exclusively used in the positioning of brain section at present is the ROSA of French Medtech SA companies exploitation, and advantage is essence
Really, intelligence, but price is too high, and the whole world also only equips tens at present, and domestic 4 hospitals only trivial at present introduce.
In conclusion the defect of above method is all obvious, and it is mainly expensive, it is complicated for operation.Reason is mainly
Because Cerebral surgery positioning is an extremely complex problem, required in reliability and accuracy very high, general technology is set
It is standby to be difficult to meet needs.In order to reach corresponding accuracy, with regard to product that is extremely complex, therefore developed on hardware configuration
Cost is just very high, simultaneously as the reason of design principle, uses and is also very inconvenient.
Utility model content
To solve the above problems, the utility model provides a kind of operation tridimensional orienting headstock.
To achieve the above object, the technical solution that the utility model is taken is:
Operation tridimensional orienting headstock, including semi-circular with a scale orientation bow and sliding block, semi-circular orientation bow bipod connect
It is connected to skull fixing glue pedestal, sliding block and semi-circular orientation bow are sliding, and sliding block is equipped with the locking bolt for being fixed,
The half opening guider insertion groove of a placement separate type guider, and the axle center pair of guider insertion groove are offered on the sliding block
The center of circle of quasi- semi-circular orientation bow;For the scale using the axle center of side skull fixing glue as starting point, semi-circular orientation bow is divided into 180
Degree, each scale indicate 1 degree.
Wherein, a diameter of 240mm-300mm of the semi-circular orientation bow.
Wherein, the width of the semi-circular orientation bow is 20mm-50mm, and material can be metal, plastics and macromolecule material
Material etc..
Wherein, bipod of the two skull fixing glue pedestals respectively by bolt and semi-circular orientation bow is affixed.
Wherein, the separate type guider use a variety of internal diameters separate type guider, such as Fr10, Fr12, Fr14,
Fr16、Fr18;Puncture tube for guiding different model, limitation puncture direction, and separation design is convenient for taking-up puncture tube.
Wherein, further include an anti-penetration skull fixing glue, be fixed on skull, tip length be no more than skull thickness and
Design restricted depth shelves.
The utility model has the advantages that:
1. using new stereotaxis principle, completely new three-dimensional coordinate system is devised using the characteristics of CT and MR, is avoided
Conventional stereo direction finder needs installation positioning basic ring in advance and carries out CT and MR scannings again, avoids Use of Neuronavigation and needs in advance
Scalp Marker is first pasted, operating robot is also avoided and needs to obtain CT and MR scan datas, simplify preoperative preparation
Work, substantially reduces operation time.
2. the target coordinate in practical operation measures and position line labeling method is simple, it is easily mastered, only spends briefly
Time can make accurate positioning.
3. frame is simple in structure, reuse or first use are may be designed as, it is of low cost, convenient for being pushed away in basic hospital
Extensively, surgical effect is improved, medical expense is reduced.
Description of the drawings
Fig. 1 is the positive structure schematic of the utility model embodiment operation tridimensional orienting headstock.
Fig. 2 is the structure schematic diagram of the utility model embodiment operation tridimensional orienting headstock.
Fig. 3 is the front schematic view that CT/MR coordinate systems position in the utility model embodiment.
Fig. 4 is the vertical view that CT/MR coordinate systems position in the utility model embodiment.
Fig. 5 is head mark schematic diagram in the utility model embodiment.
Fig. 6 is the vertical view of head mark in the utility model embodiment.
Specific implementation mode
In order to make the purpose of this utility model and advantage be more clearly understood, with reference to embodiments to the utility model into
Row is further described.It should be appreciated that specific embodiment described herein is only used to explain the utility model, and do not have to
In restriction the utility model.
As Figure 1-Figure 2, the utility model embodiment provides a kind of operation tridimensional orienting headstock, including with a scale
Semi-circular orientation bow 1 and sliding block 3, semi-circular orientation 1 bipod of bow is connected with skull fixing glue pedestal 2, and sliding block 3 is fixed with semi-circular
It is sliding to bow 1, and sliding block 3 is equipped with the locking bolt 4 for being fixed, and a placement separate type is offered on the sliding block 3
The half opening guider insertion groove 6 of guider 5, and the center of circle of the axes alignment semi-circular orientation bow of guider insertion groove;It is described
For scale using the axle center of side skull fixing glue as starting point, semi-circular orientation, which is bent, is divided into 180 degree, each 1 degree of scale expression, and described half
A diameter of 240mm-300mm of annular orientation bow 1, the width of semi-circular orientation bow 1 are 20mm, material can be metal,
Plastics and high molecular material etc.., bipod of the two skull fixed pin pedestals 2 respectively by bolt and semi-circular orientation bow 1 is affixed, institute
State separate type guider of the separate type guider 5 using a variety of internal diameters, such as Fr10, Fr12, Fr14, Fr16, Fr18;For drawing
The puncture tube of different model is led, limitation punctures direction, and separation design further includes that an anti-penetration skull is solid convenient for taking out puncture tube
Fixed nail, the tip length and limitation depth shelves of the general skull thickness of length.
As shown in figures 3 to 6, include the following steps when this specific implementation uses:
1. establishing coordinate system by Fig. 3:Fig. 3 is the baseline plane of routine CT/MR, it is seen that external auditory canal and lens.With
Bilateral external auditory canal center on line is X-axis, and median sagittal line is that Y-axis establishes coordinate system.
2. measuring target coordinate value x, y, z according to Fig. 4:Fig. 4 be target spot where flat target level, apart from baseline plane away from
From for target spot z values.X values are distance of the target spot apart from median line, and y values are that target spot is projected apart from bilateral external auditory canal on line in target layer face
The distance of line.
3. according to target coordinate the value x, y, z of measurement in head mark target spot projection:By taking Fig. 5 as an example, baseline is drawn, it is parallel
Baseline draws target layer face parallel lines, and projection of the target spot in temporo side is marked according to y values.
4. gland rack position:It will be fixed on skull after two skull fixing glues alignment both sides target spot projection of head frame,
Fixing glue or so adjustment segmental support is screwed, so that 90 degree of guide directions is directed at the other parallel center line that bursts at the seams shown in Fig. 6, it is target that distance is opened on side
Distance x of the point apart from center line.
5. after positioning head frame fixation, using skull fixing glue as the arbitrary rotational positioning bow of axis and sliding slider, guider
The direction perseverance being aligned is the center of orientation bow, can be punctured to target spot, the operations such as biopsy.
The above is only the preferred embodiment of the utility model, it is noted that for the common skill of the art
For art personnel, without departing from the principle of this utility model, can also make several improvements and retouch, these improve and
Retouching also should be regarded as the scope of protection of the utility model.
Claims (6)
1. operation tridimensional orienting headstock, which is characterized in that including semi-circular orientation bow (1) with a scale and sliding block (3), semi-ring
Shape orientation bow (1) bipod is connected with skull fixing glue pedestal (2), and sliding block (3) is sliding with semi-circular orientation bow (1), and sliding block (3)
It is equipped with the locking bolt (4) for being fixed, the half of a placement separate type guider (5) is offered on the sliding block (3)
Openings lead device insertion groove (6), and the center of circle of the axes alignment semi-circular orientation bow of guider insertion groove;The scale is with side
The axle center of skull fixing glue is starting point, and semi-circular orientation bow is divided into 180 degree, and each scale indicates 1 degree.
2. operation tridimensional orienting headstock as described in claim 1, which is characterized in that the semi-circular orientation bends the straight of (1)
Diameter is 240mm-300mm.
3. operation tridimensional orienting headstock as described in claim 1, which is characterized in that the width of the semi-circular orientation bow (1)
Degree is 20mm-50mm.
4. operation tridimensional orienting headstock as described in claim 1, which is characterized in that two skull fixing glue pedestals (2) are respectively
The bipod for orienting bow (1) with semi-circular by bolt is affixed.
5. operation tridimensional orienting headstock as described in claim 1, which is characterized in that the separate type guider (5) uses
The separate type guider of a variety of internal diameters, the puncture tube for guiding different model, limitation puncture direction.
6. operation tridimensional orienting headstock as described in claim 1, which is characterized in that further include that an anti-penetration skull is fixed
Nail, is fixed on skull, and tip length is no more than skull thickness and designs restricted depth shelves.
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Cited By (1)
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CN107280778A (en) * | 2017-06-14 | 2017-10-24 | 钟志锋 | Operation tridimensional orienting headstock and its application method |
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CN107280778A (en) * | 2017-06-14 | 2017-10-24 | 钟志锋 | Operation tridimensional orienting headstock and its application method |
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