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CROSS REFERENCE TO RELATED APPLICATIONS 
     The present application is a Continuation in Part of co-pending U.S. patent application Ser. No. 14/106,616 filed on Dec. 13, 2013, entitled “POSITION AND VELOCITY MEASUREMENT TOOL FOR STANDARD AND DIRECTIONAL DRILLING.” This reference is hereby incorporated in its entirety. 
    
    
     FIELD 
     The present embodiments generally relate to a drilling rig with a position and velocity measuring tool that provides a self-adjusting auto driller usable for standard drilling and directional drilling in a wellbore. 
     BACKGROUND 
     A need exists for a drilling rig with a sensorless, physical encoderless ability to drill in a wellbore for improved reliability. 
     A need exists for a drilling rig with an auto driller. 
     The present embodiments meet these needs. 
    
    
     
       BRIEF DESCRIPTION OF THE DRAWINGS 
       The detailed description will be better understood in conjunction with the accompanying drawings as follows: 
         FIG. 1  depicts a drilling rig with a position and velocity measuring tool. 
         FIG. 2  depicts the position and velocity measuring tool connected to the top drive. 
         FIG. 3  depicts the position and velocity measuring tool connected to a network. 
         FIG. 4  depicts the operator directional drilling steering system dashboard for use with a top drive. 
         FIGS. 5A-5C  depict a diagram of the data storage according to one or more embodiments. 
         FIG. 6  depicts an embodiment of the operator directional drilling steering system dashboard. 
     
    
    
     The present embodiments are detailed below with reference to the listed Figures. 
     DETAILED DESCRIPTION OF THE EMBODIMENTS 
     Before explaining the present apparatus in detail, it is to be understood that the apparatus is not limited to the particular embodiments and that it can be practiced or carried out in various ways. 
     The present embodiments generally relate to a drilling rig with a position and velocity measuring tool usable for standard drilling and directional drilling in a wellbore with an auto driller and for directionally operating a top drive. 
     The embodiments further relate to a drilling rig with increased reliability of top drives having improved continuous operation. 
     A benefit of the drilling rig with the position and velocity measuring tool is that top drive runaway for the drilling rig is virtually eliminated during drilling when top drive runaway is caused by loss of encoder feedback on the top drive. Top drive runaway causes drill pipes to break and fall, which can cause injuries to workers at a drill site. 
     Another benefit of the drilling rig with the position and velocity measuring tool is that the position and velocity measuring tool eliminates the need for hardware encoder feedback, which eliminates the need for torque pulsing of the drill pipe from a partially failed encoder, which could shake drill pipe uncontrollably resulting in the shaking of the rig floor causing workers to fall and injure themselves in the event that a make-up or break-out pipe tong is connected. 
     A further benefit of the drilling rig with the position and velocity measuring tool is that the drilling rig enables drilling for fossil fuels more reliability using software that does not breakdown in place of hardware that breaks down, enabling more wells to be drilled at lower costs by the same drilling rig with reduced maintenance. 
     Yet another benefit of the drilling rig with the position and velocity measuring tool is that the position and velocity measuring tool provides a more reliable method of drilling with the drilling rig with fewer breakdowns at the drill site by equipment on the drilling rig. Breakdowns often lead to fires and explosions, resulting in serious bodily injury and even death of personnel. 
     A further benefit of the invention is that the improved drilling rig reduces failure points in the drill string through the elimination of torque pulses caused by the failure of encoder feedback. The elimination of torque pulses caused by the failure of encoder feedback significantly increases the reliability of the top drive on the drilling rig, producing a combination of equipment that results in potential savings of millions of dollars that would be lost in downtime, as well as potential loss of life. 
     Turning now to the Figures,  FIG. 1  depicts a drilling rig  300  with a position and velocity measuring tool  6 . 
     The drilling rig  300  can include a derrick  11  that can support a top drive  14  for installing drill pipe  17  in a wellbore  15 . The drilling rig can be an oil and natural gas drilling rig, or a similar rig known in the industry. In embodiments, the derrick can be replaced with a tower. The top drive can be a moveable top drive. The derrick  11  can have a crown  301  with sheaves  302  and a cable  304 . 
     The drilling rig  300  can include a lifting means  306  connected to the cable  304  on one end. The lifting means  306  can be a lifting block, a hook, a pair of bail connectors, each bail connector supporting the top drive on either side, or the like. 
     The drilling rig  300  can include a drawworks  310  connected to the cable on an end opposite the lifting means for raising and lowering the lifting means  306 . 
     The drilling rig  300  can include a mud pump  312  connected to a mud tank  314  for providing drilling fluid  315  into the wellbore  15 . Drilling fluid pressure  10  can come from the mud pump, typically through the top drive into the wellbore. 
     The drilling rig  300  can include a blowout preventer  318  mounted over the wellbore  15 . The drilling rig can include a power supply  22  for providing power to the mud pump, drawworks, top drive and a controller  322 . The controller  322  can be in communication with the power supply and equipment on the drilling rig for operating the power supply, drawworks, top drive and mud pump. In embodiments, the power supply can be a generator. 
     The drilling rig can include the top drive  14  mounted to the lifting means  306 . The position and velocity measuring tool  6  can be in communication with the top drive  14  and the drawworks  310 . 
       FIG. 2  depicts the position and velocity measuring tool  6  connected to the top drive  14 . 
     The top drive  14  can include an electric motor  18 . The position and velocity measuring tool  6  can be connected to the electric motor  18 . The electric motor can be connected to a gear  13 . The gear  13  can rotate a quill  12  that engages the drill pipe  17  as the drill pipe is run into the wellbore  15 . The quill  12  can have a central axis  5  which parallels the wellbore. 
     The derrick  11 , lifting means  306 , cable  304 , drawworks  310 , power supply  22  and controller  322  are also shown. 
       FIG. 3  depicts the position and velocity measuring tool  6  connected to a network  26 . 
     The position and velocity measuring tool  6  can include a housing  19 . The housing  19  can contain a data storage  28 , a processor  24  and a variable frequency drive  20 . The processor  24  can be connected to a network  26 . 
     The term “data storage” refers to a non-transitory computer readable medium, such as a hard disk drive, solid state drive, flash drive, tape drive, and the like. The term “non-transitory computer readable medium” excludes any transitory signals but includes any non-transitory data storage circuitry, e.g., buffers, cache, and queues, within transceivers of transitory signals. 
     The data storage  28  can include computer instructions to produce an operator directional drilling steering system dashboard  29   a  for steering the drill pipe using the top drive viewable on a display  30   a , which can be connected to the housing  19  of the position and velocity measuring tool  6 . Additional operator directional drilling steering system dashboards  29   b  and  29   c  can also be displayed on additional displays  30   b  and  30   c  of client devices  32   a  and  32   b.    
     In embodiments, the data storage  28  can be remote to the housing  19  for communication through the network  26 . 
     The processor  24  can be a computer or a programmable logic controller. The processor  24  can be a plurality of processors connected together, such as a cloud based processing system. 
     The processor  24  can communicate with the display  30   a , which can be remote to the top drive. The display  30   a  can be connected directly or wirelessly to the processor  24  through the network  26 . The processor  24  can communicate with the client devices  32   a  and  32   b  through the network  26 . Remote users  33   a  and  33   b  can operate the client devices. 
     The variable frequency drive  20  can communicate with and have an electrical connection to the processor  24  which can communicate to the data storage  28 . The variable frequency drive  20  can connect to the power supply  22  that can supply power to the processor and various drilling equipment. In embodiments, a generator on the drilling rig can supply power to the processor. The variable frequency drive  20  can connect to the electric motor  18  in the top drive. 
     The network  26  can be a satellite network, the internet, a cellular network, a local area network, another global communication network, a wide area network, combinations thereof or several of these networks connected together. 
     The client devices  32   a  and  32   b  can be cellular phones, laptops, tablets other computers, tablets, personal digital assistants, or a similar device known in the industry with a processor, data storage and ability to connect to a network. 
     In embodiments, a client device can simply display the alarm portion of the operator directional drilling steering system dashboard enabling executives that are remote to a drilling site to closely monitor the drilling and take steps to prevent a blow out or possible explosion when the quill deviates too much from the desired orientation. 
       FIG. 4  depicts the operator directional drilling steering system dashboard. 
     The operator directional drilling steering system dashboard  29  can depict alarm information  240 . Alarm information  204  can include an alarm number  201 , such as 0001; time when alarm occurred  202 , such as 12:16:54 on a 24 hour clock; date when alarm occurred  203 , such as 04:11:13; current status of the alarm  204 , such as “C” when the alarm comes in with the message or “CD” when the same alarm is resolved; and description of the alarm  205 , such as “low oil level” for pump 001. The description can also refer to low oil pressure or other descriptions. 
     The letter “C” represents that the alarm is coming, which is an industry standard in alarm logic from Europe, particularly in Germany as “kommt” and “geht.” Alarms come and go, so the letters relate to coming and going. The letter “D” represents that the alarm has disappeared. If the letter “D” is used, then the alarm is generally resolved. 
     The operator directional drilling steering system dashboard  29  can depict a current date  206  for the moment in time that the operator is viewing the operator directional drilling steering system dashboard. In embodiments, the current date can be shown as a day of the week, a month, a year, and an hour with minutes and seconds. 
     The operator directional drilling steering system dashboard  29  can depict a drilling system status window  207  with at least three indicators showing power generation and status of the drilling equipment. High line (HL)  214  represents high line which is power from a power grid. Generator one (Gen1)  219  represents generator  1 . Top drive (TD)  221  represents the top drive. Each indicator can be illuminated when power is provided or the device is running. 
     The operator directional drilling steering system dashboard  29  can depict a drill string meter  208 . The drill string meter can show revolutions per minute of the quill, such as 0 rpm, and torque in foot-pounds on the quill, such as 0 lbf ft. 
     The position and velocity measuring tool can measure revolutions per minute and torque of the top drive, which can be up to 400 rpm and up to 50,000 foot-pounds respectively, which can be provided as a feedback communication from the variable frequency drive to the processor and into the non-transitory computer medium. Typical settings for a small top drive can be lower than settings for a larger top drive. 
     The operator directional drilling steering system dashboard  29  can depict tool face controls  209  which can display and enable modification of orientations of the quill connected to the drill string. The position and velocity measuring tool can provide a virtual encoder replacing the need for an actual encoder for the top drive. 
     The tool face controls  209  can include offset in degrees  210 , which can be a set value on how much an operator wants to turn a quill. 
     The tool face controls  209  can include a tool face actual degree orientation  211 . Due to the elasticity of the drill string, a rotation in degrees, such as 90 degrees at the quill, does not equal the rotation of the tool face in the wellbore. For example, the tool face can only rotate 10 degrees in the wellbore with a 90 degree rotation of the quill at the top drive. The tool face actual orientation can be entered into the tool face actual degree orientation  211  to correct for downhole resistance and the elasticity of the drill pipe. 
     The tool face controls  209  can include an offset in revision  212 . The offset in revision can indicate an offset in degrees plus at least one complete 360 degree rotation of the drill string. The offset in revision indicates 720 degrees of rotation, which is 360 multiplied by 2. The offset in revisions  212  represents a quantity of 360 degree rotations around the axis of the quill. 
     The operator directional drilling steering system dashboard  29  can have an execute offset values activation button  213  to activate computer instructions to instruct the processor to operate the electric motor to rotate the quill to the degrees input to the tool face controls. The execute offset values activation button  213  can execute the offset in degrees, the tool face actual degree orientation and the offset in revisions of the tool face controls. 
     The operator directional drilling steering system dashboard  29  can depict oscillate controls  215  which can display and enable changing of an amount of rotation of the quill to rock the drill string while drilling within the formation. The oscillate controls can include counterclockwise rotation in degrees  216 , clockwise rotation in degrees  217 , and oscillation speed  218 . 
     Counterclockwise rotation in degrees  216  can be an amount of degrees in a counterclockwise rotation the quill imparts to the drill string. The drill string can rotate counterclockwise to enable a dithering action of the drill string between clockwise and counterclockwise rotation. The counterclockwise rotation in degrees is shown as 50 degrees, which indicates a counterclockwise rotation of the quill from a stationary point to a degree orientation 50 degrees from that point. The stationary point can be the tool face actual degree orientation  211 . 
     Clockwise rotation in degrees  217  can be an amount of degrees in a clockwise rotation which the quill imparts to the drill string. The clockwise rotation in degrees is shown as 70 degrees, which indicates a clockwise rotation from the stationary point to a degree orientation 70 degrees from that point. The stationary point can be the tool face actual degree orientation  211 . 
     Oscillation speed  218  can be a value of revolutions per minute the quill is to impart to the drill string to achieve the rocking while drilling within the formation desired by the operator. The oscillation speed is shown as 10 rpm indicating a rotation of the quill. 
     The operator directional drilling steering system dashboard  29  can have a dither drill on/off button  220 , which can be connected to computer instructions to instruct the processor to start or stop the electric motor to rotate the quill to the degrees input to the oscillate controls. The text of the dither drill on/off button  220  can change to indicate the operating drill status. In an embodiment, the dither drill on/off button can be configured to display two buttons, one for off and one for on. 
     The operator directional drilling steering system dashboard  29  can have a quill pointer  232 , which can point to a degree number that indicates the current rotation of the quill. 
     The operator directional drilling steering system dashboard  29  can have a tool face pointer  234 , which can point to a degree number that indicates the current position of the tool face. The tool face pointer  234  can be formed on a wellbore map  230  indicating rotation of the tool face. 
     Information from the tool face can occur every few seconds. Dots can be placed on the target to show where the tool face is located. The update time can be variable depending upon the depth of the tool face within the well. 
     Computer instructions can colorize the operational condition to be green for normal operation, yellow for warning that a non-fatal fault is occurring in the operating system and red for a critical warning that the top drive has shut down to preserve the tool. 
       FIGS. 5A-5C  depict a diagram of the data storage according to one or more embodiments. 
     The data storage  28  can include computer instructions  402  to record and display as alarm information: alarm numbers and at least one of: a time when alarm occurred; a date when alarm occurred; a current status of the alarm; and a description of the alarm. 
     The data storage  28  can include computer instructions  403  to present in a drilling system status window: a high line (HL), a generator one (GEN1), and a top drive (TD). For operation, two of the windows should always be on or colored green. The two windows that should always be on will either be the combination of the top drive and high line, or top drive and generator one. 
     The data storage  28  can include computer instructions  406  to calculate a quill offset in degrees from a central axis of the quill. 
     The data storage  28  can include computer instructions  408  to calculate a tool face actual degree orientation using a central axis of a quill. 
     The data storage  28  can include computer instructions  410  to calculate an offset degree in revisions. 
     The data storage  28  can include computer instructions  411  to calculate a counter clockwise rotation in degrees from a central axis of the quill. 
     The data storage  28  can include computer instructions  412  to calculate a clockwise rotation in degrees from the central axis of the quill. 
     The data storage  28  can include computer instructions  413  to calculate an oscillation speed in revolutions per minute of the quill. 
     The data storage  28  can include computer instructions  414  to display a current date on the operator directional drilling steering system dashboard. 
     The data storage  28  can include computer instructions  416  to present a drilling system status as a window on the operator directional drilling steering system dashboard. 
     The data storage  28  can include computer instructions  418  to present a drill string meter on the operator directional drilling steering system dashboard. 
     The data storage  28  can include computer instructions  420  to execute offset values when the execute offset values activation button is activated. 
     The data storage  28  can include computer instructions  422  to present a dither drill on/off button allowing an operator to toggle between activation and deactivation. 
     The data storage  28  can include computer instructions  424  to form a wellbore map on the operator directional drilling steering system dashboard. 
     The data storage  28  can include computer instructions  426  to form a quill pointer on the displayed wellbore map to indicate rotation of the quill from a central axis of the quill. 
     The data storage  28  can include computer instructions  428  to form a tool face pointer on the displayed wellbore map to indicate a rotation direction of the tool face. 
     The data storage  28  can include computer instructions  430  to colorize the tool face controls and the oscillate controls on the operator directional drilling steering system dashboard to be green for normal operation, yellow indicating a non-fatal fault is occurring in the operating system, and red for fatal fault. For example, red can be a critical warning that the top drive has shut down to preserve the tool. 
     The data storage  28  can include the following computer instructions to create an embodiment of the operator directional drilling steering system dashboard, which is shown in  FIG. 6 , for steering drill pipe using an auto-driller presenting at least one of: a weight on bit monitoring and controlling section, a rate of penetration monitoring and controlling section, and a differential pressure monitoring and controlling section. 
     Computer instructions  600 - 609  can be usable with the weight on bit monitoring and controlling section. 
     The data storage  28  can include computer instructions  600  to display sensed data from measurement while drilling equipment as actual values in kilopounds and percentage off of an input WOB setpoint. 
     The data storage  28  can include computer instructions  602  to input a setpoint for weight on bit forming an input WOB setpoint. 
     The data storage  28  can include computer instructions  603  to raise the WOB setpoint with an up arrow. 
     The data storage  28  can include computer instructions  604  to lower the WOB setpoint with a down arrow. 
     The data storage  28  can include computer instructions  605  to zero the WOB setpoint with a zero WOB setpoint button. 
     The data storage  28  can include computer instructions  606  to set a bit limit for the WOB setpoint as a bit limit value. 
     The data storage  28  can include computer instructions  607  to select input weight on bit parameters as part of the auto drilling process when an auto drilling with WOB limiter button is actuated. 
     The data storage  28  can include computer instructions  608  to zero out hook load when a new pipe is presented for running into a wellbore when a zero WOB button is actuated. 
     The data storage  28  can include computer instructions  609  to present a filter that calculates and average weight on bit over a predefined unit of time. 
     Computer instructions  620 - 625  can be usable with the rate of penetration monitoring and controlling section. 
     The data storage  28  can include computer instructions  620  to input a setpoint for rate of penetration of a bit forming an ROP setpoint. 
     The data storage  28  can include computer instructions  621  to display sensed data from measurement while drilling equipment as actual values in feet per hour and percentage off of an input ROP setpoint. 
     The data storage  28  can include computer instructions  622  to raise the ROP setpoint with an up arrow. 
     The data storage  28  can include computer instructions  623  to lower the ROP setpoint with a down arrow. 
     The data storage  28  can include computer instructions  624  to zero the ROP setpoint with a zero ROP setpoint button. 
     The data storage  28  can include computer instructions  625  to select input rate of penetration parameters as part of the auto drilling process when an auto drilling with ROP limiter button is actuated. 
     Computer instructions  650 - 658  can be usable with the differential pressure monitoring and controlling section. 
     The data storage  28  can include computer instructions  650  to input a setpoint for mud pump differential pressure displayed as a differential pressure setpoint. 
     The data storage  28  can include computer instructions  651  to display sensed data from measurement while drilling equipment as actual values in psi coming from drilling fluid pressure and percentage off from the differential pressure setpoint. 
     The data storage  28  can include computer instructions  652  to input a differential pressure setpoint limit. 
     The data storage  28  can include computer instructions  653  to raise the differential pressure setpoint with an up arrow. 
     The data storage  28  can include computer instructions  654  to lower the differential pressure setpoint with a down arrow. 
     The data storage  28  can include computer instructions  656  to zero the differential pressure when a new pipe is presented for running into a wellbore when a zero DP button is actuated. 
     The data storage  28  can include computer instructions  657  to select input differential pressure parameters as part of the auto drilling process when an auto drilling with DP limiter button is actuated. 
     The data storage  28  can include computer instructions  658  to present a filter that calculates an average differential pressure over a predefined unit of time. 
     The data storage  28  can include computer instructions  659  to initiate steering drill pipe into a wellbore using the operator directional drilling steering system dashboard for steering drill pipe using an auto driller when the auto driller start button is actuated. 
     The data storage  28  can include computer instructions  660  to stop steering drill pipe into a wellbore using the operator directional drilling steering system dashboard for steering drill pipe using an auto driller when the auto driller stop button is actuated. These computer instructions can produce linear continuously adjusted setpoints during drilling without the need for using look up tables, indexes or lists, by using actual drilling data with setpoints and linearly adjusted setpoints, while drilling a wellbore. 
       FIG. 6  depicts an embodiment of an operator directional drilling steering system dashboard. 
     This embodiment of the operator directional drilling steering system dashboard  29  can be used for steering drill pipe using an auto driller presenting at least one of: a weight on bit monitoring and controlling section  901 , a rate of penetration monitoring and controlling section  902 , and a differential pressure monitoring and controlling section  903 . The monitoring and controlling sections can be simultaneously viewable on the display and can use at least one of the values presented to optimize best penetration rate for a wellbore 
     The weight on bit monitoring and controlling section  901  can display actual values of sensed data from measurement while drilling equipment in kilopounds  501  and percentage  502  off of an input WOB setpoint. 
     The weight on bit monitoring and controlling section  901  can display a weight on bit setpoint  509  and an optional unit  508  which can be in pounds. 
     The weight on bit monitoring and controlling section  901  can display a bit limit value  511  with optional bit units  549 . 
     The weight on bit monitoring and controlling section  901  can display an auto drilling with WOB limiter button  512 . 
     The weight on bit monitoring and controlling section  901  can display a zero WOB button  503  which when actuated will zero the hook load when a new pipe is presented for running into a wellbore. 
     The weight on bit monitoring and controlling section  901  can display a filter  513  that calculates and averages weight on bit over a predefined unit of time, such as 2 seconds. 
     The weight on bit monitoring and controlling section  901  can display an up arrow  504  to raise the WOB setpoint and a down arrow  505  to lower the WOB setpoint. 
     The weight on bit monitoring and controlling section  901  can display a zero WOB setpoint button  510  that can zero the setpoint for weight on bit when actuated. 
     The rate of penetration monitoring and controlling section  902  can display an ROP setpoint  552 . 
     The rate of penetration monitoring and controlling section  902  can display sensed actual values from measurement while drilling equipment in feet per hour  519  and as a percentage off of an input ROP setpoint  520 . 
     The rate of penetration monitoring and controlling section  902  can display an input rate of penetration parameter as part of the auto drilling process when an auto drilling with ROP limiter button  527  is actuated. 
     The rate of penetration monitoring and controlling section  902  can display an up arrow  521  to raise the ROP setpoint and a down arrow  522  to lower the ROP setpoint. 
     The rate of penetration monitoring and controlling section  902  can display a zero ROP setpoint button  526  to zero the ROP setpoint. 
     The differential pressure monitoring and controlling section  903  can display actual values of data sensed from measurement while drilling equipment in pounds per square in  531  which is the psi coming from drilling fluid pressure, and percentage off from the differential pressure setpoint  532 . 
     The differential pressure monitoring and controlling section  903  can display a differential pressure setpoint  553  enabling a user or other computer input a setpoint for mud pump differential pressure. 
     The differential pressure monitoring and controlling section  903  can display a differential pressure setpoint limit  538  with optional units in psi  535 . 
     The differential pressure monitoring and controlling section  903  can display an auto drilling with DP limiter button  539  that activates computer instructions that select input differential pressure parameters as part of the auto drilling process. 
     The differential pressure monitoring and controlling section  903  can display a filter  540  that calculates an average differential pressure over a predefined unit of time, such as 2 seconds. 
     The differential pressure monitoring and controlling section  903  can display an up arrow  498  to raise the differential pressure setpoint and a down arrow  533  to lower the differential pressure setpoint. 
     The differential pressure monitoring and controlling section  903  can display a zero DP button  497  to zero out differential pressure when a new pipe is presented for running into a wellbore. 
     The differential pressure monitoring and controlling section  903  can display a zero DP setpoint button  537  to zero the differential pressure setpoint. 
     The operator directional drilling steering system dashboard  29  can include an auto driller start button  541  to initiate steering drill pipe into a wellbore. 
     The operator directional drilling steering system dashboard  500  can include an auto driller stop button  542  to stop steering drill pipe into a wellbore. 
     The operator directional drilling steering system dashboard  29  can produce linear continuously adjusted setpoints during drilling without the need for using look up tables, indexes or lists, by using actual drilling data with setpoints and linearly adjusted setpoints, while drilling a wellbore. 
     In embodiments, the position and velocity measuring tool can be a drill bit, directional drilling tools, tools associated with downhole assemblies, fishing tools, a casing hanger, a swell packer, a packer assembly, or combinations thereof. 
     To use the embodiments to steer a quill, the operator can log into the system with a user name and password. 
     Next, the operator can select the operator directional drilling steering system dashboard to be displayed. 
     The display can be connected to a processor and the data storage which can communicate to a variable frequency drive for operating an electric motor connected to a gear box mounted on the top drive. 
     The operator can see alarm information and a current date on the display. 
     If an alarm is indicated in the alarm information, the operator can investigate the cause of the alarm or notify another worker to investigate. 
     The alarm information allows the operator to check the time, date, status and description of each alarm in the alarm information section. Multiple alarms with multiple statuses can be viewed simultaneously by the operator and by users of client devices connected to the network and the processor. 
     The operator can next check the operational status of the top drive by looking at the drilling system status window. The drilling system status window can show that power is available or not available and that the top drive is ready to run or stopped. 
     Next, the operator can check the tool face controls. The operator can reset the position of the tool face in the wellbore by inputting different numbers into the tool face controls changing the offset in degrees and the offset in revisions, which results in a change to the tool face actual degree orientation. 
     For example, if the operator wants to reset a tool face actual degree orientation by 3 degrees, the operator can recognize that the drill string has torque applied against it. The operator can then reduce torque by applying 2 offset revisions, spinning the drill pipe two revolutions, 720 degrees, to reduce the torque. 
     Simultaneously with that spinning, the operator can additionally use an input of 10 degrees for offset in degrees to result in a 3 degree turn in the tool face actual degree orientation for a total of 730 degrees. 
     The reason for doing this is to account for the elasticity of the drill pipe. 
     When the operator presses the execute offset values activation button, both variables are input to the processor simultaneously, and the quill is moved by the gear and electric motor causing the tool face actual degree orientation to change by 3 degrees. 
     Once the execute offset values activation button is pressed, the quill pointer can be examined to indicate the quill moved 730 degrees, two complete revolutions plus the 10 degrees, and verify that the tool face pointer moved the necessary 3 degrees. 
     An operator can make these changes using the tool face controls to obtain a better rate of penetration, such as faster rate of penetration through the rock being drilled. 
     Next, the operator can check the oscillate controls. The operator can reset the counterclockwise rotation in degrees, the clockwise rotation in degrees and oscillation speed. 
     For example, the operator can understand that the formation into which the drill bit is being drilled is about to encounter a granite boulder. A dithering motion of the drill bit can optimize fragmentation and penetration through the granite boulder. The operator can change the counterclockwise rotation in degrees to 50 degrees and the clockwise rotation in degrees to 70 degrees and increase the oscillation speed by 10 rpm to cause the drill to penetrate the granite boulder faster and without breaking the drill bit. 
     An operator can make changes to the oscillate controls to optimize drilling penetration through challenging rock or through soft shale. 
     An operator can view the drill string meter if the top drive is running, which reveals revolutions per minute of the quill and torque in foot-pounds on the quill to see if the drill string is safely turning. The drill string meter can be used with or without oscillation. 
     The embodiments can control both toque and sliding of the tool face in a wellbore. 
     The operator can activate the dither drill on/off button to either turn on or turn off the dither drill control of the top drive. The dither drill control controls the oscillation of the tool face while drilling. 
     The operator can view a wellbore map with a quill pointer that indicates rotation of the quill and a tool face pointer that indicates rotation of the tool face. 
     When the tool face pointer overlaps the quill pointer, the operator knows that the tool face and quill are at the same position. Typically the quill and tool face are not at the same position, because there is deflection in the tubulars of the drill string. 
     While the system is running and oscillating, the embodiments do not require the shut off of the quill to remove torque from the drill string and does not require shut off of the top drive to re-orient the drill string while the quill is off. 
     Turning off the quill costs the drilling operator time and money with no return on investment. Drilling stops when the quill is motionless. 
     The embodiments enable adjustment of the tool face while continuing to oscillate the drill string with the quill. 
     In embodiments, the data storage is a non-transitory computer medium. 
     While these embodiments have been described with emphasis on the embodiments, it should be understood that within the scope of the appended claims, the embodiments might be practiced other than as specifically described herein.

Summary:
A drilling rig with a position and velocity measuring tool that provides a self-adjusting auto driller usable for standard drilling and directional drilling in a wellbore. The position and velocity measuring tool has a processor and data storage with computer instructions for instructing the processor to present an operator directional drilling steering system dashboard with numerous graphic visual components which creates and uses a virtual encoder eliminating a failure point of a mechanical encoder.