Abstract:
A method and device has been developed to enable emergency responders to maintain and communicate their orientation relative to a fire building or other emergency incident area as they work in and around it. The device is a specialized compass enhancement providing a standalone unit that each responder can carry. The device has a multipart structure including: (1) an underlying base is a simple compass that the responder orients to north. (2) A bezel rotatable around the simple compass is preferably square in shape and represents the building or incident area and is labeled with NIMS standardized ABCD designations. (3) An optional rotatable pointer can be independently positioned to indicate a direction to be remembered such as the direction in which the responder entered the incident area. All of the parts can be synchronized among users at any time by radioing simple verbal descriptions of the rotational setting(s).

Description:
CROSS-REFERENCE TO RELATED APPLICATIONS 
     This application claims the benefit of U.S. Provisional Patent Application No. 60/801,144, filed May 18, 2006 by Nash. 
    
    
     TECHNICAL FIELD OF THE INVENTION 
     The present invention relates to personal orientation method and device and, more particularly to orientation for emergency responders. 
     BACKGROUND OF THE INVENTION 
     Structural fires are trending toward burning hotter and faster due to the nature of materials used for interior finishes and furnishings. In addition, larger ‘box’ type stores and warehouses with vast interior spaces are becoming the norm across the country. Outdoor wildfires are particularly dangerous because wind and ground conditions can cause sudden changes in the bounds of the fire and smoke obscures visual cues leading to disorientation. Many times, there is quite a bit of confusion on a fireground (general area of a fire). Adverse weather conditions, darkness, obscuring smoke, and panicking occupants and bystanders add to this overall confusion. In the midst of this confusion, a firefighter tries to maintain his/her focus, assess the situation, and attempt to bring it under control. 
     During a firefight, responders entering a hazardous area may become disoriented. A common means of orientation is to follow the “hose line”, but particularly in dark and/or smoky buildings responders can easily lose track of the hose line and become disoriented, not knowing which direction to go for an exit path (which is usually the way the responder entered the fireground.) Since most self contained breathing apparatus provides approximately 30 minutes of breathing air, a lost responder has little time to react and find a way out. If the responder becomes confused, the result can be fatal for that individual and potentially fatal for any crew attempting a rescue. In fact, according to the National Institute of Occupational Safety and Health (NIOSH), each year tens of thousands of firefighters are injured while performing their duties. Firefighter disorientation is one of fire fighting&#39;s most serious hazards and is the leading cause of injuries and fatalities of firefighters. 
     A survey of firefighters conducted for the inventor indicated that a very high percentage of those surveyed believe that a new device and/or method is necessary to assist firefighters in finding their way out of danger as quickly as possible. To date this great need has been unmet. For example, thermal imaging devices can help to find a lower temperature area which might be a way through the fireground (fire building), but this only reads surface temperatures in line of sight, and is too bulky and expensive for use by individual firefighters. For example, GPS devices do not work well indoors, if at all. For example, a tracker system (e.g., Pak-Tracker™, by Scott Health &amp; Safety; Monroe, N.C.) allows rescuers with a special receiver to locate lost responders if they have activated their corresponding transmitter, but the system is expensive and doesn&#39;t help an individual to exit a dangerous area on his/her own. For example, another tracker system (e.g., Tracker FRT™, by Exit Technologies; Boulder, Colo.) includes “egress transmitters” that can be tracked using a unit carried by each responder; but this requires an added procedure of laying down the egress transmitters like cookie crumbs while entering the fireground. Potential problems include disabling of the egress transmitters by harsh conditions; and also the fact that this doesn&#39;t provide for radioing a new route to a trapped responder when the original marked route is no longer usable. For example, a regular north-pointing compass does not associate fireground landmarks with compass directions. 
     A standardized US procedure for dealing with emergency incidents is the “Incident Command System (ICS)” that is a part of the “National Incident Management System (NIMS)” of guidelines, policies and principles. This system includes standardized landmark designations that are commonly recognized by all responders and their controller (Incident Manager, IC) at the fireground (or “incident site”). Simply stated, in the case of a building fire, guidelines define A, B, C, and D sides of a building with reference to the nearest street, and go around the building clockwise from the “A” side which is the side facing the nearest street. In this way, even though a building will likely have unique and varied names for portions of the building, every firefighter in that building will have just four standardized names for four standard portions of the building: the four sides of the building. This matters to the firefighter because in all communications (generally by radio) they refer to directions in the building with reference to the standardized named portions (landmarks) of the building, each of which has the universally understood simple ABCD labels; or else the firefighters may relate a direction to the location of the command post (CP) which can be anywhere but is communicated as a location relative to the ABCD designations. Even with this clearly understood labeling of fireground landmarks, however, a firefighter within a building who has become disoriented will have lost track of the landmarks and likely will not be able to see the exterior walls in order to become re-oriented. 
     Thus there is a great need for a new orientation device and/or method that can be implemented by any responder at an incident site, particularly a fireground, and most particularly when the responder is within a building. If substantially all of the responders are to use such a new device, it must be small enough and moderately priced such that every responder can carry and use his/her own device. 
     BRIEF SUMMARY OF THE INVENTION 
     The inventive device has been developed to enable firefighters, their exterior sector officer and the fireground commander (IC) to maintain their orientation relative to the fire building or area as they battle interior structural fires or outdoor wild fires. The device is a specialized and enhanced compass that is designed as a stand alone unit that each firefighter can carry onto the scene. The compass has a multipart structure: (1) The underlying base is a normal compass that the firefighter will orient to north. (2) A rotatable bezel (preferably square in shape) represents the fire building or incident area and is labeled with NIMS standardized ABCD designations. (3) An optional rotatable pointer can either represent the direction in which the responder entered the hazardous area or the location of the command post. 
     All three parts can be set at any point during the operation by radioing the Fireground Commander and obtaining the needed rotational positions. 
     According to the invention, an emergency responder&#39;s orientation device for use in an incident area that may be a building, is disclosed, the device comprising: a north-pointing compass having a center axis and a scale labeled to identify amounts of rotation around the axis; and a bezel, rotatable about the axis, and labeled to identify radially outward directions toward named portions of the incident area; wherein the bezel labels and the scale labels are arranged such that at least one of the bezel labels can be seen to align with a scale label. 
     Further according to the invention: the bezel is rectangular in shape to represent an incident area that has four sides, each side being one of the named portions of the incident area; and at least one of the four bezel sides is labeled with a standardized incident area side name. Preferably the bezel is square in shape; and the standardized incident area side names are the letters A, B, C and D assigned to bezel sides in clockwise order from A to D, all according to standards of the National Incident Management System (NIMS) of the United States. 
     Further according to the invention: there is a pointer that is independently rotatable around the axis to indicate a radial direction to be remembered. Preferably click-stop and/or frictional resistance to movement is incorporated in the rotational connection of the pointer to the device. 
     According to the invention, the orientation device further comprises click-stop and/or frictional resistance to movement that is incorporated in the rotational connection of the bezel to the device. 
     According to the invention, the orientation device further comprises tactile elements on the bezel, positioned as tactile labels identifying radially outward directions. 
     According to the invention, the orientation device is such that the amount of rotation around the axis is angularly measured clockwise from a label for the northerly radial direction. Preferably the scale has north, east, south, and west labels spaced 90 degrees apart in clockwise order as for compass directions. 
     According to the invention, the orientation device further comprises illumination of the compass north-pointing indicator and of the scale labels. Preferably there is a switch for turning on electrically operated illumination. Alternatively the illumination is provided by luminescent material. 
     According to the invention, the orientation device is such that a bezel label is shaped in the form of a radial pointer. 
     According to the invention, the orientation device is such that: the compass has a body that extends radially outward from the center axis; the bezel is rotationally mounted on the body, does not extend as far outward as the body, and reveals the north-pointing indicator of the compass; the scale labels are on the body outside the radial extent of the bezel; and a label for the northerly direction is positioned such that the north-pointing indicator can be seen to align with it when the body is turned to cause that alignment. 
     According to the invention, the orientation device further comprises a hanger ring or a strap with a clasp. 
     According to the invention, the device may be affixed on, or built-in to, a tool or an item of clothing. In a preferred example, the tool is a battery powered lantern; and the lantern battery is used to power illumination of the device. 
     According to the invention, a method of orientation using the orientation device comprises the steps of: 
     a) setting the device by one of two methods, the first setting method being turning the device until the north-pointing indicator is aligned with a scale label for the northerly direction, then rotating the bezel until it is visually oriented such that the bezel labels point in the direction of named portions of the incident area; and the second setting method being to receive setting instructions that comprise a bezel label and a scale label that are to be aligned, and then to rotate the bezel to carry out the setting instructions; and 
     b) orienting oneself relative to the incident area by turning the device which has been set in step (a) until the north-pointing indicator is aligned with a scale label for the northerly direction, then utilizing the bezel labels as radial pointers in the direction of correspondingly named portions of the incident area. 
     Other objects, features and advantages of the invention will become apparent in light of the following description thereof. 
    
    
     
       BRIEF DESCRIPTION OF THE DRAWINGS 
       Reference will be made in detail to preferred embodiments of the invention, examples of which are illustrated in the accompanying drawing figures. The figures are intended to be illustrative, not limiting. Although the invention is generally described in the context of these preferred embodiments, it should be understood that it is not intended to limit the spirit and scope of the invention to these particular embodiments. 
       Certain elements in selected ones of the drawings may be illustrated not-to-scale, for illustrative clarity. The cross-sectional views, if any, presented herein may be in the form of “slices”, or “near-sighted” cross-sectional views, omitting certain background lines which would otherwise be visible in a true cross-sectional view, for illustrative clarity. 
       Elements of the figures can be numbered such that similar (including identical) elements may be referred to with similar numbers in a single drawing. For example, each of a plurality of elements collectively referred to as  199  may be referred to individually as  199   a ,  199   b ,  199   c , etc. Such relationships, if any, between similar elements in the same or different figures will become apparent throughout the specification, including, if applicable, in the claims and abstract. 
       The structure, operation, and advantages of the present preferred embodiment of the invention will become further apparent upon consideration of the following description taken in conjunction with the accompanying drawings, wherein: 
         FIG. 1  is a schematic plan view of a basic embodiment of an orientation device according to the invention. 
         FIG. 2  is a plan view of an enhanced embodiment of the orientation device according to the invention. 
         FIG. 2A  is a plan view of an alternative embodiment of the orientation device of  FIG. 2 , according to the invention. 
         FIG. 3  is a perspective cross-sectional view of the orientation device embodiment of  FIG. 2 , wherein cross-section shading is omitted for clarity, all according to the invention. 
         FIG. 4A  is a plan view of an exemplary implementation of the orientation device schematically showing it mounted on a glove according to the invention. 
         FIG. 4B  is a plan view of an exemplary implementation of the orientation device schematically showing it with an attachment strap according to the invention. 
         FIG. 4C  is a side view of an exemplary implementation of the orientation device schematically showing it attached on, or built-in to, a lantern according to the invention. 
         FIG. 4D  is a side view of an exemplary implementation of the orientation device schematically showing it with an attachment carabiner clip and a cord according to the invention. 
     
    
    
     DETAILED DESCRIPTION OF THE INVENTION 
     The invention described herein concerns inventive improvements to a common “compass” (generally referred to herein as a simple compass). Because of that, the inventive orientation device may also be referred to in outside literature as a “compass” but it should be understood by context when the term refers to the inventive orientation device as opposed to a regular or simple north-pointing compass. In general, the inventive device will be distinguished by referencing it as an (inventive) “orientation device” or more simply as the “device”. 
     Furthermore, an inventive method of orientation will be described herein with particular reference to the inventive device as it is illustrated and described as one or more representative embodiments. The embodiments are not intended to limit the scope of the invention, either in physical form as a device or as an inventive orientation method that can be implemented on any functional equivalent of the inventive device. All references to the orientation device should be understood to also refer to any orientation method that can use the device. 
     Even further, the disclosure herein is mainly described in terms appropriate to use of the device by firefighters working inside a building or structure that is on fire. It should be understood that this usage is merely a preferred use of the inventive device and is not limiting of the scope of applicability and usefulness for the device. References to “firefighters” should be understood as references to any device user in the generic group variously termed emergency workers, emergency responders, first responders, rescuers and so on. Similarly, a fire is one embodiment of many possible “incidents” that require the services of emergency workers/responders, and a “building” or “fire building” or “fire ground” or a wildfire area or a flood area and so on are all examples of “incident sites” or “incident areas”. 
     Referring now to  FIG. 1 , a simplified basic embodiment of an inventive compass/orientation device  100  includes two main parts: a simple north-pointing compass  102 , and a building bezel  104  that can be rotated around the simple compass  102 . A compass needle  105  is clearly marked to identify the north-pointing end of the needle  105 , and compass points are indicated on a scale in any understandable and easily discernable way. The north-pointing compass  102  can be one with a physical needle  105  as illustrated, but could equally well be a functional equivalent such as a digital compass with, for example, a lighted point that “rotates” around the compass like a needle. 
     For example, as shown, compass direction labels  106  may form a scale  106  that includes the four main directions N,E,S,W, for North, East, South, and West, respectively. Preferably the rest of the direction labels  106  are simplified, for example as clock face numbers. In fact almost any labeling system could be adopted as long as one point is understood to represent “north” (i.e., the direction to which the needle  105  must be pointed by rotating the simple compass  102 ). The building bezel  104  is labeled  108  with NIMS standard building side designations, i.e., “A”, “B”, “C”, “D” arranged 90° apart in clockwise order. 
     Although not specifically illustrated in the schematic representation of  FIG. 1 , it should be understood that the simple compass  102  is attached to, or part of, an overall “body” that can be held while the building bezel  104  is manually rotated around the simple compass  102 . Preferably the device is small enough to be held in one hand, but big enough to enable its operation by a person wearing protective clothing such as heavy firefighter&#39;s gloves. For example it could be approximately the size of a hockey puck; for example it could be as large as five by 2 inches overall. 
     An inventive method of using the inventive device  100  is as follows. First, a user orientates his device  100  to (magnetic) north by turning the whole device  100  so that the simple compass  102  is rotated until the needle  105  is pointing at the “north” label  106  (e.g., the letter N at the 12 o&#39;clock position of the compass  102 ). Secondly, the user rotates the building bezel  104  to correspond with the orientation of the building relative to the body of the simple compass  102  when it is held with the compass needle  105  still pointing to the north “N” compass label  106 . The user&#39;s orienting device  100  is now “set”. This two step setting process is easily accomplished by anyone (probably outside) who has a view of the building and is able to identify at least one of its ABCD designated building sides. Preferably a team leader, incident commander, or other designated person will set her device  100  and then communicate the resultant setting to the other responders so that they can duplicate it. 
     Setting the device  100  aligns the building side labels  108  with specific points around the compass dial  102 . For example, in  FIG. 1  the illustrated setting indicates that the C side of the building is directly facing north; the A side (where the nearest street is located) is facing south; and so on. Anyone who is unable to determine the building orientation on their own can set their orientation device  100  according to simple verbal instructions (e.g., via radio) from someone who does know. In the example illustrated by  FIG. 1 , then, a user would simply be told to turn the building bezel  104  until the “C” building side label  108  is directly “on” N, or “12 o&#39;clock”, or whatever compass label  106  is being used to indicate magnetic north. Of course the same setting could also be described as “C to N”, or “C- 12 ”, or “D-east”, or “A- 6 ” and so on. Preferably a standardized description format is used to avoid confusion. For example, building side label “A” could always be referenced to its nearest compass point label  106 . 
     Once the user has a properly “set” orienting device  100 , she can determine which direction to walk in order to proceed toward a desired building side. For example, again referring to the illustration of  FIG. 1 , if a user wanted to walk toward the B side of the building, she could rotate the whole device  100  until the B side label  108  is pointing away from the front of her body, and then turn her body until the needle  105  is pointing to the “north” compass label  106 . Now the user is facing the B side of the building and can walk toward it simply by walking in the direction of the B side of her device  100  when it is held in front of her with the needle  105  pointing at the N label  106 . Alternatively, without moving his body, a user can rotate the device  100  until the needle  105  points at the N label  106 , and then the building bezel  104  will visually indicate the building orientation around him. 
     Of course the method assumes that the setting of the orientation device  100  is not changed by the user while he is finding a direction. In other words, for the setting of  FIG. 1  the A building side label  108  must remain set on the S compass point  106 . One way of resisting unintentional setting changes is to incorporate friction and/or click-stop points into the rotational connection between the simple compass  102  and the building bezel  104 . 
     If the user remembers which side of the building he entered (e.g., the B side), then even if disoriented and/or having “lost the hose line” it is a simple matter to consult his orienting device  100  to determine where the B side is when he needs to exit the building. (Generally speaking the entry point is likely to be the best exit point for a fire building.) Alternatively, an incident commander (IC) can radio instructions to the responders with reference to the simplified NIMS directions that are oriented relative to the building&#39;s overall shape. For example, the IC may note that fire has closed off the original entrance at the B side and then radio his responders to escape through a passage recently cleared in the C side of the building. 
     A properly set orientation device  100  can also be used to verbally identify other points of interest at the fireground. For example, the IC could radio the location of a ladder placed at a second floor window on the D side but close to the A-D corner. Similarly, the relative location of an incident command post (ICP) can be radioed to responders. 
     The basics of the inventive compass/orienting device  100  (and a corresponding method of orienting a user) has been described. Many variations, enhancements and additional uses will likely be seen in light of this description. Some particularly useful examples of such variations, enhancements and additional uses will now be described with reference to the remaining illustrations, each of which shows one or more in an exemplary embodiment. 
       FIG. 2  shows an enhanced version of the inventive orienting device  100 . The compass scale labels  106  have a visually emphasized “N” to assure proper alignment of the compass to north. The building bezel  104  is a square shape to visually and tactiley represent a four sided building, and also to make it easier to grasp the building bezel  104  for rotating it. In addition, building side indicator bumps  118  are used to provide tactile labels for the individual building sides with, for example, one bump  118  for the A side, two bumps  118  for the B side, three for C, and four bumps  118  for the D side. A device body  101  (understood but not seen in  FIG. 1 ) extends out beyond the building bezel  104  and is fixedly attached to the simple compass  102  so that the body  101  can be held while the building bezel  104  is rotated relative to the simple compass  102  and therefore also relative to the body  101  attached thereto. Having a wider body  101  enables better recognition of the compass directions by repeating at least some of the compass point labels  106  as corresponding compass body direction labels  107  that form a rotational scale  107  on the body  101  where the labels can be larger for easier reading. 
     An optional hanger ring  116  is attached to the body  101 . For use in dark locations, it is important to light at least the compass  102 , its needle  105 , and its direction labels/scale  106 ,  107 . This could be done with luminescent materials and/or battery operated lights that are turned on by a switch, e.g., a momentary action push button switch  114 . 
     To aid the user in remembering a direction (e.g., the building entry point), a pointer  110  is provided in a way that can be rotated around the body  101  to any desired position (i.e., the pointer  110  is rotationally connected to the device  100 ). In the illustration of  FIGS. 2 and 3 , the pointer  110  extends outward from an annular pointer ring  112  that is slidingly engaged with the periphery of the body  101 , e.g., trapped between a body top  101   a  and a body bottom  101   b . Again friction and/or click-stops can be employed to maintain position. Thus, in the example illustrated in  FIG. 2 , the device  100  is “set” to “A 5 ”, and the user has oriented the pointer  110  to remind him of the location of something in the direction of the B-C corner of the building. Of course a radio command could refer to the setting as A 5 , B 8 , C 11 , or D 2 . Or a heading (to which the pointer  110  could be set) could be communicated as the B-C corner, or “just past W toward 10”. If that is considered awkward, then a finer scale of numbering (e.g., every 10 degrees) could be provided as body labels  107 , where the greater diameter allows for readable labeling of finer subdivisions than on the small diameter compass face. 
     Just as the north (N) compass label  106  can be advantageously highlighted, so can a selected direction relative to the building be highlighted on the building bezel  104 . For example, as shown in  FIG. 2A , a building pointer  119  extends outward from the middle of the A side of the building bezel  104 . The building pointer  119  is therefore another form of building side label  108 . Also, since the large diameter of the body  101  provides the space to label compass points to a finer resolution, all but the North compass point labels  106  are removed and replaced by a greater number of body direction labels  107 . For example the body direction labels  107  comprise alpha-numeric characters and/or tick marks that are spaced around the perimeter every ten degrees. To improve readability, every other tick mark can be labeled with the number of degrees divided by ten (at least for the two digit numbers). Thus there are 9 tick marks per quadrant (90°), and North is 0/36, East is 9, South is 18, and West is 27. If desired, the “E”, “S”, and “W” labels  107  can be shown in their proper places instead of numbers, as is shown for the “N” label  107 . An additional way to take advantage of the better scale is to fashion the pointer  110  with an alignment point such as a diamond shape as illustrated. 
     A few more details of preferred features are illustrated in  FIG. 3  that shows, for example, ruggedizing features such as a battery compartment/device access cover  120  that can be gasketed or screwed on to resist water and dirt penetration. Likewise a cover glass  103  is sealed over the simple compass  102  for the same purpose. Preferably the cover glass  103  is heat and scratch resistant, and easily cleaned: e.g., tempered glass, e.g., Lexan or the like. The body top  101   a , pointer ring  112 , and body bottom  101   b  are interlocked to resist water and dirt entry. Likewise, a sliding gasket seal can be provided between the building bezel  104  and the body  101 , and around the light button  114 . 
     An illuminating technique is illustrated wherein light pipes (e.g., optical fibers)  122  transmit light from light sources (e.g., LEDs)  123  to the body directional labels/scale  107  and to the building side labels  108 , the labels  107 ,  108  are formed out of a translucent material that passes through the body or bezel material. For example the cross section cut reveals this for the “N” body label  107   a  and the “S” body label  107   b . Though not shown, this is also true for the building side labels  108  such as the “B” side label  108   b , the “C” side label  108   c , and the “D” side label  108   d  illustrated. The simple compass  102  itself is lighted, for example, by making the compass dial/face out of a translucent material such that the LEDs  123  will shine through except where the compass point labels  106  are applied in an opaque paint, or a contrasting color translucent ink, or even luminescent paint. Obviously many other useful variations of illumination techniques are within the scope of this disclosure. 
     Another ease of use feature is a series of grip ridges  124 , best seen in  FIG. 4D . The grip ridges  124  are designed to assure positive gripping even when wet and/or muddy. For example, the grip ridges  124  are vertical ridges of rubber-like material that are spaced around the periphery of the device  100 . Preferably the grip ridges  124  extend outward more than the pointer ring  112  so that the pointer  110  can be positioned without interference from a hand holding the device  100 . 
     Many ways to implement the inventive orienting device  100  for convenience and usability are contemplated, some examples of which are illustrated in the  FIGS. 4A-4D . 
       FIG. 4A  shows an example of mounting the device  100  directly onto a user&#39;s clothing, for example the cuff of a glove  201 . The compass body  101  being fixed relative to the user&#39;s arm, he can use his other hand to single-handedly rotate the building bezel  104  for setting the device  100 , move the pointer  110 , and operate the light button  114  while the hand in the glove is still holding onto something else, e.g., a hose or tool. The hanger ring  116  could be omitted, or perhaps used to clip the glove onto a belt. 
       FIG. 4B  shows an example of a “watch band” or strap-on implementation of the device  100  in which the body  101  is affixed to a strap  203  with a closure  205  such as hook-and-loop material with hook material  205   a  on one end of the strap  203  and mating loop material  205   b  on the other end. As in the glove  201  implementation, the strap-on version enables single handed operation of the building bezel  104 , the light button  114 , the pointer  110 , etc. 
       FIG. 4C  shows an example of the device  100  being attached on or built-in to a piece of responder&#39;s equipment, for example a battery operated lantern  211  such as are commonly used by responders, especially firefighters and rescuers. In this example, the lantern  211  has a handle  213 , possibly with hanger rings  215 , a case  217  that contains the battery, and the lamp  219 . The device  100  could be attached anywhere, such as on top of the case  217  or the handle  213 , but is shown here in a preferred location on the side of the case  217 . It can be simply affixed on the case  217 , but is most advantageously built into the case  217 . This would provide a measure of protection since most of the body  101  could be inside the case  217 , even recessed enough that the building bezel  104  would be beneath the surface in a cavity that still allowed space to grasp the building bezel  104  in order to rotationally set the device  100 . The recess could be a smaller diameter if a turnkey  126  is attached to extend outwards from the building bezel  104 . The pointer  110  could extend out from the case  217 ; it could slide around an annular recess, etc. 
     A big advantage of attaching the inventive orientation device  100  to another battery operated device such as the lantern  211  is being able to utilize the much more powerful and long lasting lantern battery to power the compass illumination (e.g., LEDs  123 ). Thus a larger power switch  214  is conveniently located on the case  217  and can be used to operate both the lamp  219  and the compass illumination, for example turning them both on at the same time. 
       FIG. 4D  shows an example wherein the orienting device  100  can be removably attached to the clothing or equipment of a user by means of a carabiner style spring clip ring  231  that is hooked onto the hanger ring  116 . The carabiner  231  can then be hooked onto a D-ring, a belt loop, etc. A lanyard or hanging cord  233 , possibly retractable, can also be used. 
     Although the invention has been illustrated and described in detail in the drawings and foregoing description, the same is to be considered as illustrative and not restrictive in character—it being understood that only preferred embodiments have been shown and described, and that all changes and modifications that come within the spirit of the invention are desired to be protected. Undoubtedly, many other “variations” on the “themes” set forth herein above will occur to one having ordinary skill in the art to which the present invention most nearly pertains, and such variations are intended to be within the scope of the invention, as disclosed herein.