the preferred embodiment of this invention is a gauge for measuring the pressure or temperature of fluids . the gauge mechanism has a pointer for indicating on a marked dial , with the pointer configured for increased dynamic resistance between the gauges pointer and the fluid in which the pointer moves . in the preferred embodiment , the pointer is comprised of a generally elongated thin sheet of metallic material having one or more segments positioned generally perpendicular to the plane of the dial . because the plane of the dial is also the plane of pointer rotation , the perpendicular positioning produces a broader portion of the pointer presenting its surface in resistance to the fluid in the direction of pointer rotation , such that dynamic drag is increased . for illustration purposes , the preferred embodiment of the invention is described in use with a pressure gauge . it is to be understood that the invention is suitable for use with both temperature and pressure gauge , and the invention is not to be construed to be limited to only the pressure gauge configuration described in the following specification . referring now to the illustations and especially to fig1 the preferred embodiment of the invention when used in a pressure gauge has a fluid resisting pointer attached to a conventional bourdon tube type pressure gauge . the gauge 10 is contained within a gauge housing 12 having a back 14 and 9 front window 16 . the housing 12 encloses a fluid - source conduit 18 carrying the fluid to be measured and leading to a movement assembly 20 ; also enclosed in the housing is a dial 22 . in the preferred embodiment , the movement 20 is a &# 34 ; c &# 34 ; type bourdon tube mechanism having a bourdon tube 24 connected to a gear mechanism 26 . the gear mechanism 26 translates the cylindrical expansion of the bourdon tube 24 into rotational movement of a pointer axel 28 . the pointer axel 28 is in turn mechanically connected to a pointer 30 such that cylindrical movement of the bourdon tube 24 results in rotation of the pointer 30 about the pointer axel 28 . the connection is similar to a rack and pinion arrangement , and is well known in the gauge art . because the preferred embodiment of the invention is a liquid filled gauge , the various components secured within the gauge housing 12 must produce a leak - proof seal within the space defined by the housing 12 , the back 14 and the front window 16 . thus , the back 14 is secured to the housing 12 through a thread arrangement 32 . likewise , the front window 16 is secured against the dial 22 through contact with a gasket or o - ring 34 , and the front window 32 is further secured within the housing 12 by a sealing ring 36 , threaded by use of ring threads 38 to the housing . similarly , the fluid - source conduit is sealed against leakage by a conduit gasket 40 within the housing 12 . fig2 illustrates a conventional prior art liquid filled bourdon tube pressure gauge . such prior art gauges possess several features in common with the preferred embodiment of the invention , including a housing 12 , a back 14 , a front window 16 , a fluid source conduit 18 , and a movement assembly 20 . likewise , prior art pressure gauges included a dial 22 , a movement assembly 20 , a gasket 34 , a ring seal 36 , and both back threads 32 and ring threads 38 . however , conventional prior art pressure gauges used only conventional pointers 44 that were generally configured with little dynamic balance to movement of the pointer 44 within the filling fluid of the prior art gauge 42 . referring now to fig3 and 5 , the details of the preferred embodiment of the dynamically resistant pointer are disclosed . the preferred embodiment of the improved pointer 30 principally comprises a elongated segment of flat metallic material configured with an indicating end 46 and a tail 48 . the indicating end 46 of the pointer 30 has a tapered section 50 creating a visual indication ( of an arrow - type configuration ) suggesting the dial position corresponding to the appropriate pressure or temperature reading . the preferred embodiment of the pointer also includes a hub 52 for attachment of the pointer 30 onto the pointer axel 28 . the hub 52 acts to secure the pointer 30 to the axel 28 through use of a securing plate 54 fastened to the pointer with a bolt 56 . the hub 52 is likewise secured to the pointer 30 through use of a bottom plate 58 which is threaded to the bolt 56 through the pointer 30 . the effect dynamic resistance to rotational movement of the pointer 30 about the pointer axel 28 , the preferred embodiment of the pointer in this invention has dynamically resistive segments , including a front segment 60 and a rear segment 62 . resistance to movement within the fluid results from a large portion of the cross - section of the resistive segments being perpendicular to the axis of rotation ( the axis corresponding to the plane of the dial 22 ). in the preferred embodiment , the resistive segments are created by three twists , hanging two portions of the pointer to be perpendicular to the dial plane . the preferred embodiment therefore includes a front twist 64 , and a middle twist 66 creating the front resistive segment 60 . similary , the preferred embodiment includes a rear twist 68 to create the rear resistive segment 62 . the use of a configuration produced by twists in the pointer to create a dynamically resistive series of segments is preferred because that configuration is relatively easy to manufacture and uses no more material than is used in a conventional pointer . other embodiments of the invention &# 39 ; s pointer are possible , and the invention is not limited to the specific configuration disclosed as the preferred embodiment . for example , the pointer may have different numbers of resistive segments ( it can , for example , have only one resistive segment , or it can have three , four or any number of segments ). the pointer may also have its resistive segments configured in manners other than sections twisted or positioned perpendicular to the axis of the dial . for example , the resistive portions of the pointer can include dynamically resistive configurations such as cups or other concave segments , and the invention should generally be construed to include any configuration that will produce greater dynamic resistance than exists on a conventional pointer . in the following claims , the terms used should not be construed to limit the invention to the specific embodiment disclosed in the specification and claims , but should be construed to include any gauge having a pointer configuration that is configured in accordance with the claims to be dynamically resistant to movement of the pointer in a gauge filled with fluid . terms such as resistive segment , should be construed , except where specifically limited to a precise configuration , to include any dynamically resistive pointer configuration . likewise , where size limitations are used in the specification , the claims should not be construed to be limited to those size configurations unless the limitations are specifically included in the claims .