“ defibrillation ” and “ defibrillator ” are the nouns used to refer to the act of and the device which terminates a rapid heart rhythm with a non - synchronized shock . these two terms are , herein intended to also refer to “ cardioversion ” and “ cardioverter ”, respectively , these latter two terms implying a synchronized shock . 1 ) overview of device function ( fig1 - 5 ) 2 ) example : system with unified adapter and communication device ( fig6 - 9 ) 3 ) example : detailed description of a modified external defibrillator system which may have various embodiments ( fig1 ) 4 ) example : system with unified adapter and cardiac monitoring and treatment device ( fig1 - 13 ) 5 ) example : versions of the system with at least one implantable component ( fig1 a , 14 b and 14 c ). fig1 shows an overview of a generalized version of the invention . the main components are cardiac treatment and monitoring ( cmtd ) device 1 and adapter ( ap ) 2 . the broadest overview of the path of informational and command signals between the cmtd and the remotely located mp is as follows : electrocardiogram ( ecg ) signals from a victim of a medical emergency pass from cmtd 1 to ap 2 to communication device ( cd ) 3 to remote station ( rs ) 4 . a medical professional ( mp ) at the rs — in a location remote from the victim — receives the ecg signals , views them , and makes a decision about whether cardiac defibrillation or cardiac pacing is necessary . if either one is necessary , the mp sends one or more control signals via the route rs to cd to ap to cmtd . cmtd 1 is a defibrillating or pacing device which has been modified so that it may communicate with a remotely located mp via an adapter 2 and a communication device 3 . the adapter allows the cmtd to be compatible with the cd . a more detailed overview of the path of informational and command signals between the cmtd and the remotely located mp is as follows : an ecg signal is derived from two or more sensing electrodes 5 . the signal is introduced to cardiac signal circuit 6 via cardiac sensing electrode input 6 a . the signal is amplified and may be further processed , as is known in the art . second local data signal 10 from cardiac signal circuit output 6 b is coupled to data translation device 7 of the adapter . various means of achieving this coupling are possible including : 1 ) a hard - wired electrical signal connection : in this case , each of a ) circuit output 6 b , and b ) the input to 7 , is externalized , i . e . hardwired to a jack or port at the surface of each of 1 and 2 , or to a connector at the end of an external cable ; and 2 ) a wireless connection which may utilize a radiofrequency signal ( rf ), an optical or infrared signal , bluetooth , wifi , or another wireless internet - based connection . 7 provides any further necessary signal conditioning required to render the output of 6 b appropriate as an input for communication device 3 . such conditioning may include amplification , filtering , noise reduction , decoding , encoding , decrypting and encrypting . once accomplished the first local data signal 11 leaves the adapter via output port 8 . adapter 2 communicates with cd 3 by either a wired or wireless connection . if the connection is wireless it may be rf , optical or infrared signal , bluetooth , wifi , or another wireless internet - based connection . cd and rs , communicate via either a wired or wireless connection or a mixture of the two . if wired , it may utilize the public telephone network or a private carrier . if the connection is wireless it may utilize a public cellular network ; rf communication on a medical band , on a cordless telephone frequency , on a satellite phone or a private carrier . there may be a wired or a wireless connection to the internet . other means of communication will be obvious to those skilled in the art . utilizing one or more of the aforementioned signaling means , ecg information moves from 3 to 4 as remote data signal 12 . after mp decision making , the signal which reflects that decision , remote control signal 13 , is transmitted back to 3 by any one or more of the aforementioned cd - rs signaling means , and , as first local control signal 14 back to the input port 15 of the adapter . the approach to ap - cd information transfer discussed hereinabove applies to the technique of cd - ap information transfer . the input port feeds information to another data translation device 16 , which provides any necessary signal conditioning required to render the output of 3 appropriate as a control input for the cmtd . such conditioning may include amplification , filtering , noise reduction , decoding , encoding , decrypting and encrypting . once accomplished the second local control signal 17 exits the adapter and enters 1 . any of the routes and modalities discussed in conjunction with outgoing second local data signal 10 are possible routes and modalities for incoming second local control signal 17 , as it traverses the 16 to 18 a route . control input 18 a is the entry point for control signals which determine what treatment circuit 18 does . in one embodiment of the invention , 18 a functions only as a conduit for signals which explicitly control defibrillation and / or pacing ( e . g . a “ deliver shock ” signal ); in another embodiment of the invention ( see below ), 18 a additionally has a switching function , whereby it allows the selection of a source of control , e . g . mp vs . a local emergency medical person : mp vs . aed algorithm ; mp vs . aed algorithm vs . a local emergency medical person , or mp vs . icd algorithm . the treatment circuit or circuits 18 controlled by 18 a may be : the output of the treatment circuit 18 b is applied to two or more defibrillator electrodes 19 . ( in the case of an implanted pacing or defibrillator device , one of these electrodes may be the “ can ” of the implanted device .) when cmtd 1 is an aed which contains both an ecg data output port and a command input port it is referred to hereinbelow as “ maed ”. the maed may be initially built with such ports , or suitably modified post initial manufacturing . the maed will contain logic device 20 , for analysis of ecg signals , which reach 20 along the route 5 to 6 a to 6 to 6 b to 20 . if a shock or pacing is appropriate based on the ecg analysis , the output of 20 will be a command ( to shock or pace ) delivered to treatment circuit control input 18 a . from this point , the command which originates in the logic device has an identical route and effect as the remotely originating command described hereinabove . the cmtd may be a manually controlled defibrillator and / or pacing device , i . e . a device which is used by a medical doctor or emergency medical technician ( each of which , hereinbelow , is referred to as “ local mp ”), and whose use entails the local mp making a shock / no - shock or pace / no - pace decision , and whose use may also involve the selection of shock parameters ( e . g . synchronization , energy ) or pacing parameters ( e . g . pacing rate ). in such an embodiment of the invention , the local mp will have a defibrillation control input 21 if the cmtd is a defibrillating device ; there will be a pacing control input 22 if the cmtd is a pacing device . embodiments of the invention in which 1 performs both functions are possible . the local mp will also require a display device 23 , for displaying the ecg signals , allowing him to make his management decision ( s ). in a device such as that described herein with more than one source of a control , it is advantageous to have a design feature which allows for the selection of a single control source . in such an embodiment of the invention , for example , if the local mp wishes to take control , he would wish to prevent or lock out control by either ( a ) the remote mp or ( b ) the logic device within the aed . this may be accomplished , as shown in fig1 , by having a lockout control 24 which may be inputted by the local mp . in this instance , following local mp input to 24 , a signal is sent to 18 a which causes it to ignore control signals from logic device 20 ( if any ) or signals 17 from a remote mp ( if sent ). in an alternative embodiment of the invention , the remote mp may be allowed to be the source of a lockout command , giving him control priority over either a local mp or the logic device . the remote mp may send such a lockout signal 17 which arrives at control input 18 a and either a ) signals the control input directly , or b ) signals lockout control 24 , or c ) both a ) and b ). in one embodiment of the invention , ( a ) the local mp may lockout the logic device , but may not lockout the remote mp , and ( b ) the remote mp may lockout either or both the local mp and the logic device . in another embodiment of the invention , ( a ) the remote mp may lockout the logic device , but may not lockout the local mp , and ( b ) the local mp may lockout either or both the remote mp and the logic device . besides controlling the parameters of pacing and / or defibrillation via signal ( 17 ), in yet another embodiment of the invention , a remote mp may also control the choice of pacing and / or defibrillation electrodes 19 , if more than two electrodes are available . such control signals 17 traverse the route 16 to 18 a to 18 to 18 b where , in this embodiment , they determine the choice of output electrodes . in yet another embodiment of the invention , a remote mp may also control the choice of sensing electrodes 5 , if more than two electrodes are available . such control signals 25 traverse the route 16 to 6 ( or 16 to 6 a ) where , in this embodiment , they determine the choice of sensing electrodes . embodiments of the invention , described hereinbelow , are possible in which the cmtd is a pacing or pacing / defibrillating device which is implanted in a patient . in this case , adapter 2 , which may be either inside the body or outside the body , allows the implanted pacemaker or pacemaker - defibrillator to use a cd ( such as a cellular telephone ) which is external to the body to communicate with a remotely located mp . embodiments of the invention are also possible in which all three of the cmtd , the ap and the cd are implanted in the body . in order to assure that an unauthorized person does not communicate with the system , data translation device 16 may contain means for confirming the identification of the putative mp , in a preferred embodiment of the invention . one approach is to assign a unique identification ( id ) number to each authorized mp user and store the id numbers in 16 . the remote mp could then be required to present his identification number at the start of a remote session , or with each command that he sends . if the id number presented by the mp does not match one of the stored id numbers , access to the system is denied . in one embodiment of the invention , the mp would be notified if access is denied ; the connection in fig1 from 16 to 7 indicates that such denial information would be routed from 16 to 7 to 8 to 3 and then to 4 . in another embodiment , the mp could also be notified of acceptance of the id number , by a signal sent along the aforementioned route — from 16 to 7 . . . and on to 4 . additional security could be achieved by requiring additional electronic identification . for example , the mp could also be required to submit a password ; the allowable passwords would be stored in 16 . either an incorrect password or an incorrect id number would result in rejection of access . in one embodiment of the invention , the password would be required for the mp to first gain access , and the correct id number would need to accompany each mp command . b ) one of a number of types of memory of a “ write - once - only - variety ;” i . e . eproms , eeproms , etc . from time to time , these units could be replaced by an on - site maintenance person , who services the adapter , or by having the entire adapter replaced from time to time , the new adapter containing the updated list of id numbers ( and , if used , passwords ) in 16 . in yet another embodiment , the id number and password list could be maintained in a memory that could only be over - written by an on - scene maintenance person . other variations in such memory access restriction methods will be obvious to those skilled in the art . other systems of user identification are possible . id numbers could be changed very frequently — even during the course of a transmission ; an id number master source could supply these on a very frequent basis to known mps and known adapter owners . alternatively , the frequency ( for transmission between cd and rs ) could be shifted on a frequent basis , even during the course of a transmission , following a pattern that would be known only to authorized users . still other user identification methods will be obvious to those skilled in the art . embodiments of the invention in which access denial hardware and / or software is located in the cd ( instead of , or in addition to its being located in the adapter ), are possible . embodiments of the invention in which access denial hardware and / or software is located in the cmtd ( instead of , or in addition to its being located in the adapter ), are also possible . an embodiment of the invention is possible in which access denial hardware and / or software is located in each of the cmtd , the ap and the cd . in order to assure proper functioning in a system with multiple attachable and detachable components , it is desirable to have a system which assures that all components are properly attached , and , in the event of a detachment , allows for one or more of : a ) notifying one or more users , who may remedy a detachment , and / or b ) causing the cmtd to revert to autonomous functioning . signaling methodology which accomplishes these tasks is discussed generally in conjunction with fig2 . apparatus for one version of signaling is discussed in conjunction with fig3 , and further discussed in conjunction with a ) the maed , hereinbelow and b ) a unit in which the ctmd and the ap are combined , also hereinbelow . referring to fig2 , each of elements 1 , 2 , 3 and 4 function as described hereinabove . the broken lines in the figure indicate attachment signals , each of which let the downstream hardware “ know ”— based on receipt of that signal — that the upstream signal source is properly attached . ( hereinbelow , “ downstream ” refers to the 4 to 3 to 2 to 1 direction , i . e . 3 is downstream from 4 . “ upstream ” refers to the opposite direction , so that 4 is considered to be upstream from 3 .) thus the receipt of signal 30 a lets the cmtd know that the ap is properly attached to it , while receipt of signal 30 b lets the ap know that the cmtd is properly attached . if the system uses the detection of a failure of attachment as a trigger for reversion of a cmtd to automatic functioning ( e . g . defibrillation management by logic device 20 ), it requires a means by which a 2 - 3 detachment ( i . e . a detachment of 2 from 3 ) or a 3 - 4 detachment ( i . e . a detachment of 3 from 4 ) is communicated to 1 . various approaches to this will be clear to those skilled in the art . one approach is to detect a detachment upstream ( e . g . at the 2 - 3 link [ the link between 2 and 3 ]), and communicate it downstream ( e . g . from 2 to 1 ). a second approach is to consider complete attachment as requiring all three links ( 1 - 2 , 2 - 3 and 3 - 4 ) to be intact , and therefore design the system so that signals pass from 4 to 3 to 2 to 1 ; in this case , failure to receive a signal at 1 implies an upstream detachment and triggers the automatic functioning of 1 , perhaps until signals from 4 are restored . specifically the aforementioned approach would entail : 1 ) signal 32 a sent from 4 to 3 ; 2 ) receipt of 32 a by 3 triggers 3 to send 31 a to 2 ; 3 ) receipt of 31 a by 2 triggers 2 to send 30 a to 1 . in this case , the arrival of 30 a at 1 indicates an intact connection between each of 1 - 2 , 2 - 3 and 3 - 4 . embodiments of the invention in which a signal repeatedly is sent from 4 , intended to signal cmtd 1 , are possible , so that the failure to receive 30 a indicates that disconnection occurred somewhere upstream in the interval since the previously received signal . embodiments of the invention with more complex downstream signaling are possible , e . g . one in which if 3 ( or 2 ) failed to receive a timely signal from 4 ( or 3 ), it would send a downstream signal indicating the failure , thereby localizing the source of the failure . this information could be useful to a person using the cmtd . it could also be useful to convey attachment information in the upstream direction . all of the same concepts and means for downstream notification of an attachment failure , apply to upstream notification . in short , the sequence would be : 1 ) signal 30 b sent from 1 to 2 ; 2 ) receipt of 30 b by 2 triggers 2 to send 31 b to 3 ; 3 ) receipt of 31 b by 3 triggers 3 to send 32 b to 4 . notification of the remote mp of an attachment failure could trigger one or more of : c ) use of backup communication means , if available , at the remote mp end ; and d ) use of backup communication means ; if available , at the cmtd end , which may be activated by either the local user , or electronically by the remote mp . still more complex signaling arrangements are possible . for example , a continuously or semi - continuously circulating signal may traverse the route 4 to 3 to 2 to 1 to 2 to 3 to 4 to 3 to . . . . in this embodiment , an initial signal may be sent from 4 which , if it reaches 1 triggers a return signal . if the return signal reaches 4 , it triggers another signal from 4 to 1 . the process continues repeatedly until either the session ends , or a break in communications occurs . because of the circulating feature of the signals , when such a break occurs , both the remote mp and the cmtd ( and / or the cmtd operator ) will be informed of its occurrence . ( the initial signal could also be sent from the cmtd .) still other signaling arrangements would let either 4 ( or the 4 operator ) and / or 1 ( or the 1 operator ) localize the point of detachment : a ) each of 4 , 3 and 2 send their own downstream signals which are coded so that the downstream recipient can identify the signal source . in this arrangement , if 1 receives signals from 2 , and not from 3 and 4 , it indicates a 2 - 3 detachment . b ) each of 1 , 2 and 3 send their own upstream signals which are coded so that the upstream recipient can identify the signal source . in this arrangement , if 4 receives signals from 2 , and not from 1 , it indicates a 1 - 2 detachment . c ) arrangements with a continuously circulating signal in which , in addition to the circulating signal , either the mp or the cmtd may cause either the ap or the cd to echo an incoming signal ; this would let the mp or the cmtd identify the point of detachment . for example , if the remote mp failed to receive the circulating signal , and then sent out an echo signal which successfully traverses the route 4 to 3 to 4 , and then sent out another echo signal which did not successfully traverse the intended route 4 to 3 to 2 to 2 to 4 , it would be clear to the remote mp that the site of the detachment was 2 - 3 . for hardwired connections involving multi - pin connectors , it would be possible to have a communication failure involving some pins , which would not be apparent if the pins carrying the attachment signals were properly connected . methods for detecting such situations include : having multiple connectors between adjacent components ( e . g . 2 and 3 ) at different geometric locations , each carrying an attachment signal ; and having an attachment signal routing routine where the attachment - signal - carrying pins are continuously varied , so that ultimately , any inadequately connected pair of pins would be detected . still other connection confirmation methodologies and routines will be obvious to those skilled in the art . fig3 shows an example of communication confirmation signaling arrangement . test signal means 40 generates a test signal 42 which , in the presence of proper attachment between rs 4 and cd 3 , is communicated to 3 , and , in the presence of proper attachment between cd 3 and ap 2 , is communicated to 2 , and in the presence of proper attachment between ap 2 and cmtd 1 is communicated to communication confirmation means 41 in 1 . in the absence of 42 , 41 signals control input 18 a which transfers control from the remote mp to either the logic device in the cmtd or to a local mp , if present . variations of this embodiment include : a ) one in which the test signal is repeatedly generated and in which 41 indicates a communication failure if a test signal is not received at the expected interval after the last received test signal ; b ) one in which a break in communication is indicated by cmtd indication means 43 . 43 may be a display screen , a tone generating apparatus , an alarm , etc . 41 and the display screen may also be configured to indicate adequate communication status ; and c ) one in which 45 emits signals on a fixed schedule ( i . e . not based on whether it receives any signals ). with this arrangement , in the presence of intact attachments of each upstream pair of components , there would be a repetitive receipt of such signals by 40 ; and a break in the received signals would indicate a detachment ; this approach could be used in addition to sending test signals 42 downstream ; d ) one in which : ( i ) the receipt of 42 by 41 results in the generation of a handshake signal 44 by handshake generating means 45 . the handshake signal traverses the system in the upstream direction . in the presence of proper attachment between each of 1 and 2 , 2 and 3 , and 3 and 4 , the signal arrives at 40 in rs 4 . non - arrival of an expected return signal 44 ( such expectation based on 40 having sent out signal 42 ) triggers a message from 46 at the remote station 4 . optionally , arrival of 44 at 4 triggers a status message on rs indication means 46 ( tone or screen message , etc . ); and ( ii ) at fixed intervals of time thereafter , 40 generates additional test signals , for repeatedly evaluating the integrity of each attachment ; ( i ) the receipt of 42 by 41 results in the generation of a handshake signal 44 by handshake generating means 45 . the handshake signal traverses the system in the upstream direction . in the presence of proper attachment between each of 1 and 2 , 2 and 3 , and 3 and 4 , the signal arrives at 40 in rs 4 . non - arrival of an expected return signal 44 ( such expectation based on 40 having sent out signal 42 ) triggers a message from 46 at the remote station 4 . optionally , arrival of 44 at 4 triggers a status message on rs indication means 46 ( tone or screen message , etc . ); ( ii ) the receipt of 44 by 40 triggers the next test signal , 42 +[ as opposed to the method of ( d ) above , where the next test signal is not triggered by the arrival of 44 , but instead occurs a fixed interval after the previous test signal was emitted ]; ( iii ) the receipt of 42 + by 41 triggers the next handshake signal . 44 +; ( iv ) the receipt of 44 + by 40 triggers still another test signal , 42 ++; ( v ) the process of nth test signal generating the nth handshake signal , and the nth handshake signal generating the ( n + 1 ) th test signal continues until the event for which communication is required has ended , or until there is a break in communication . fig4 shows one possible embodiment of a remote station 4 . it consists of a ) transmitting and receiving apparatus 50 ; and b ) a computer 51 linked to 50 . 50 communicates with cd 3 , as shown in fig1 ( not shown in fig4 ). the communication between 50 and 51 may be ‘ hard - wired ,’ radiofrequency , bluetooth , wifi and infrared / optical signals , through the internet ( via a wired or wireless connection ) or through the public telephone system ( wired or wireless ). 51 contains a processor 53 linked to a ) memory 52 and b ) a display device 54 . not shown in the figure are one or more input devices , a power supply and other items commonly found in a computer , as is well known in the art . the computer 51 allows the mp to input commands , and to store information about : the current event , this victim &# 39 ; s prior events [ if any ] entailing use of the remotely controlled apparatus , this victim &# 39 ; s medical history , medical practice in general , legal aspects of arrest and emergency management , in general advanced legal directives that pertain to this victim , the cmtd which is downstream [ including prior malfunctions ( if any ) of the model of cmtd , and of the particular cmtd in current use ], the ap which is downstream , the cd which is downstream , the competence of a particular local m - p who is using 1 , 2 and 3 , the availability of emergency services in the vicinity of the victim , and the availability of other remote mps , should he find himself needing to handle a larger number of simultaneous tasks than is practical . the computer also allows the mp to more carefully analyze a complex or difficult to diagnose electrocardiogram , either by enlarging it , making on - screen measurements , filtering it in different ways , or comparing it to a database . the computer allows the mp to select from a menu of commands to be inputted into the cmtd . these may be as simple as shock vs . no shock , or complex packages of commands ( e . g . perform anti - tachycardia pacing with a cycle length which is 84 % of the tachycardia cycle length , burst duration 8 beats , total attempts = 3 , inter - burst 10 msec . cycle length decrement . minimum paced cycle length = 230 msec .). the computer also allows the mp to select : voice prompts , if necessary ( e . g . if available bandwidth for communication with the cmtd is very narrow ) which may be stored in the cmtd . the computer also allows the mp to select a video prompt , e . g . for the delivery of cpr instructions to a bystander at the arrest scene ; the video prompt may be stored in 52 , in the cmtd , or at another location with which 51 can communicate . acknowledgment is made of the concept that , as cellular telephones and personal communication devices become progressively more sophisticated , the distinction between a communication device and a communication device plus computer becomes somewhat arbitrary . we are already at a point where essentially all commercially available communication devices have each of the items in 51 , as well as a power supply and one or more input devices . thus , the combination of 50 and 51 may be a cellular telephone , a blackberry device , etc . form a complete remotely controlled monitoring and treatment device ( rcmtd ). only the addition of a remote station is necessary to assemble the complete system . fig5 a , 5 b and 5 c show three ways in which the three aforementioned components may ( or may not ) be assembled . fig5 a , version 1 , shows the linkage of ap 2 and cd 3 within housing 60 . the combined ap and cd is referred to as the ccmtd — indicating communication and control unit of a cardiac monitoring and treatment device . symbolic representations of the aforementioned functional relationships shown in fig5 a , in which the components of the ccmtd include the adapter and the communications device , are : in the case where an aed is being upgraded to a remotely controllable defibrillator , the above symbolic statements would be written as : where crcd refers to the communication and control unit of a remotely controlled defibrillator , the other terms having been defined hereinabove . fig5 b shows another way , version 2 , of distributing the components of the rcmtd . it shows the incorporation of a cmtd 1 and an adapter 2 , each with functionality similar to that described hereinabove , combined within one housing to form a communications device compatible cmtd 61 , “ cdccmtd .” a communications device 3 such as a cell phone may be attached to the cdccmtd to form the complete rcmtd . symbolic representations of the aforementioned functional relationships shown in fig5 b , in which the components of the cdccmtd include the cmtd and the ap , are : in the case where an aed is being upgraded to a remotely controllable defibrillator , the above symbolic statements would be written as : where cdcaed refers a communication device compatible aed , the other terms having been defined hereinabove . fig5 c shows another way , version 3 , of distributing the components of the complete rcmtd . it shows each of the three components of the rcmtd , a symbolic representation of the aforementioned functional relationships shown in fig5 c , in which each of the three components of the rcmtd is separate , is : in the case where an aed is being upgraded to a remotely controllable defibrillator , the above symbolic statement would be written as : fig6 shows a specific example of version one , referred to in fig5 a , in which the cmtd is a modified aed . it illustrates a schematized view of a method and apparatus for adapting automatic external defibrillators so that they may be remotely controlled with minimal modification . the requirements for constructing such a system are : 1 ) an aed design modification which “ externalizes ” ( i ) aed ecg signals and ( ii ) defibrillation control signal circuit and / or command access points , so that they become ( i ) aed telemetry output and ( ii ) aed control input ; units with such modifications are referred to as modified aeds ( maeds ). a device or devices which allow for electronically extending these inputs and outputs to a remote mp , via a communication system . this may be accomplished by coupling the maed inputs and outputs to either : a single device , a crcd ( as defined hereinabove ) which combines the components and functionality of each of the ap and the cd . referring again to fig6 , 100 is a modified automatic external defibrillator . the modification consists of the addition of external access to : 1 ) ecg signals from a victim attached to the maed ; and 2 ) control inputs which allow control of the defibrillator ( and pacing ) circuitry within the maed . as shown in the figure , the ecg and control signals may be coupled to a crcd 102 by cable 104 and schematically shown connector 106 a and 106 b . following the coupling of connectors 106 a and 106 b , remote control of the maed is achieved according to the sequence : 1 ) victim ecg signals from maed 100 to crcd 102 ( via the sequence 100 → 106 b → 106 a → 104 → 102 ); 2 ) ecg signals from crcd to remotely located medical professional ( mp ); 3 ) mp analyzes the ecg signals , and decides on the need for defibrillation , pacing ( in the case of a 100 unit with capability to pace as well as defibrillate ) or neither ; 4 ) if appropriate , mp sends defibrillation or pacing control signals ; 5 ) control signals , if any , traverse the route from crcd 102 to maed 100 ( via the sequence 102 → 104 → 106 a → 106 b → 100 ); and 6 ) depending on whether a defibrillation or pacing signal has been sent , the victim may receive defibrillation or pacing stimulation . although the connectors 106 a and 106 b show one pair of wires and one pair of pins for each of two signals , formats involving a greater or lesser number of channels and a greater or lesser number of pins are possible , as is known in the art . as shown in the example in fig7 , the connection between the maed and the crcd need not be hard - wired . electromagnetic signals such as radiofrequency , bluetooth , wifi and infrared / optical signals may link the maed and the crcd . as shown in the figure , maed 100 may use associated signaling unit 101 a to send signal 101 b which may be rf , microwave , infrared , etc . to the crcd signaling unit 101 c . 101 c is coupled to crcd 102 . signaling in the opposite direction proceeds along the path 102 → 101 c → 101 b → 101 a → 100 . 1 ) maed type 1 , wherein the modification ( which allows electrical coupling to takes place ) is made post - aed production ; and 2 ) maed type 11 , wherein the modification is built in at the time of production . fig8 shows a more detailed view of the components of an embodiment of the maed 100 and their interaction with those of an embodiment of the crcd 102 . victim ecg signals are processed at 200 ( electrode inputs not shown in the figure ), and formatted and optionally displayed at 202 . signals from 200 are also made available for coupling to the crcd at 204 . in the coupling arrangement shown , the ecg signal gets to the crcd via female / male pin arrangement 220 c / 220 d . many other possible connector arrangements will be familiar to those skilled in the art . the ecg signals are optionally further processed at 230 within the crcd . from 230 , they pass to 232 where they are encoded , possibly encrypted and transmitted to a mp . if the mp determines that the victim &# 39 ; s heart rhythm is ventricular fibrillation , or a ventricular tachycardia which requires a shock ( there are non - shock - requiring vts . ), he may send a command signal (“ a button press signal ”) which causes the aed to shock the victim . the button press signal path would be : from imp to receiver and decoder 234 ( decryption here , if necessary ), to optional further signal processing within the crcd at 236 , to the maed via connectors 220 f and thence 220 e ( other connector arrangements possible ), to optional further signal processing within the maed at 206 , to defibrillator circuits 208 . in a preferred embodiment of the invention , the mp would also be able to override a defibrillation command signal which originates in the aed logic device , as discussed hereinabove in conjunction with fig1 . in embodiments of the invention in which the mp also controls the energy of the defibrillator pulse , the mp may send a pulse energy selection signal which traverses the path : 234 → 238 → 220 h → 220 g → 210 → 208 . in embodiments of the invention in which the mp also controls the shock synchronization , the mp may send a synchronization selection signal which traverses the path : 234 → 240 → 220 j → 220 i → 212 → 208 . the mp may send a variety of other commands and signals . these may include : in embodiments in which the mp controls pacing and defibrillation , pacing control would be achieved with a system whose design is analogous to elements 208 + 206 / 210 / 212 , which control defibrillation . 3 ) commands to control a chest compression device ( as discussed in ser . no . 10 / 460 , 458 ; and in ser . no . 11 / 502 , 484 ); 5 ) signals which control the audio output from ( e . g . volume control ) and / or audio input to ( e . g . microphone gain ) the maed : 8 ) signals which control video prompt ( i . e . video images stored within the maed or crcd ) selection ; 10 ) signals which control the maed video display ( e . g . brightness on maed video screen ) and / or video input to the maed ( e . g . input to a maed video camera ); 11 ) signals which download new software into the maed ; 12 ) signals which are intended for test purposes — i . e . mp ( or other non - medical personnel ) testing of : 13 ) signals which are intended for teaching purposes during a non - emergency event , which may include : the path of the aforementioned commands are indicated in the figure as traversing the route 234 → 242 → 220 l → 220 k → 214 . from 214 , the command signal would pass to the appropriate target , e . g . to defibrillator circuits 208 in the case of defibrillator controlling commands , and to audio signal processing and amplification circuitry ( not shown in the figure ) in the case of a voice message to the either the victim , or an “ enabler ” who uses the apparatus to aid a victim . signals in addition to ecg signals , i . e . other telemetry signals , which may be sent from maed to crcd and thence to the remotely located mp may include : 2 ) audio signals from either the victim , or an enabler ; 3 ) video signals showing either the victim , or the performance of an enabler ; 4 ) battery voltage for one or more maed batteries ; 5 ) signals indicating the results of testing done to evaluate the integrity / proper function of maed circuitry ; 6 ) signals , if available , indicating victim physiologic parameters which may include : the path of the aforementioned other telemetry signals are indicated in the figure as traversing the route 216 → 220 a → 220 b → 244 → 232 . the telemetry signal reaches 216 , from the appropriate source , e . g . from defibrillator circuits 208 in the case of defibrillator charging and , possibly , shock delivery confirmation signals , and from audio signal processing and amplification circuitry ( not shown in the figure ) in the case of a voice message from the victim or enabler . in one embodiment of the invention , proper linkage and communication between the maed and the crcd may be confirmed on an intermittent or continuous basis by a series of handshake signals . in the event of an interrupted connection , indicated by an interruption in handshake signals , non - mutually exclusive options would include : 1 ) notifying the enabler and / or victim ; 2 ) notifying the mp ; 3 ) returning control of the defibrillator circuits to the aed logic device ( i . e . the aed then functions as a conventional [ v . i . z . autonomous ] aed , with the aed logic circuits controlling all aspects of aed function ); and 4 ) continuing to try to re - establish a proper handshake . referring to fig9 , maed microprocessor 300 generates a handshake signal 302 /( a ) [ the “( a )” of “ 302 /( a )” is intended to indicate the first of a sequence of signals collectively referred to as 302 , with the next one after 302 /( a ) referred to as “ 302 /( b )”, etc .] which , if connection 320 e → 320 f is intact , is passed to crcd microprocessor 310 . receipt of first handshake signal 302 /( a ) by 310 , causes 310 to generate handshake signal 312 /( a ) [ the 312 terminology is the same as the aforementioned 310 terminology ] which , if connection 320 d → 320 c is intact , is passed to maed microprocessor 300 . the handshake cycle continuously repeats , as long as the aforementioned maed - crcd connections are intact . in the event that crcd microprocessor 310 does not receive an expected handshake signal , it may : 1 ) notify the enabler and / or victim by causing a signal to be sent to announcement components 314 . these components may include audio circuitry and a speaker , or a text message associated with an alarm signal ; 2 ) notify the mp by causing a signal to be sent to transmitter 232 via an encoder ; and 3 ) attempt to send a signal 312 /( b *) to the maed microprocessor indicating that the crcd microprocessor did not receive the previous / expected handshake signal from the maed . this 312 /( b *) signal may cause the maed to ( i ) attempt / make a repeat handshake transmission to the crcd ; and / or ( ii ) send a signal to defibrillator circuits 208 to switch to conventional aed function ( i . e . no mp control ). in the event that maed microprocessor 300 does not receive an expected handshake signal , it may : 1 ) notify the enabler and / or victim by causing a signal to be sent to announcement components 304 . these components may include audio circuitry and a speaker , or a text message associated with an alarm signal ; 2 ) send a signal to defibrillator circuits 208 to switch to conventional aed function ( i . e . no mp control ); and 3 ) attempt to send a signal 302 /( b *) to the crcd microprocessor indicating that the maed microprocessor did not receive the previous / expected handshake signal from the crcd . this 302 /( b *) signal may cause the crcd to ( i ) attempt / make a repeat handshake transmission to the maed ; and / or ( ii ) notify the mp by causing a signal to be sent to transmitter 232 via an encoder . handshake signals 312 of fig9 corresponds to signal 30 a of fig2 ; handshake signals 302 of fig9 corresponds to signal 30 b of fig2 . in an embodiment of the invention in which the communication confirmation process extends from the rs to the maed , the signal path would be rs to 234 ( by a signal corresponding to signal 32 a of fig2 ), to 310 , giving rise to signal 312 , to 320 d , to 320 c , to 300 . in an embodiment of the invention in which the communication confirmation process extends from the maed to the rs , the signal path would be 300 , giving rise to signal 302 , to 320 e , to 320 f , to 310 , to 232 , and then to the rs ( by a signal corresponding to 32 b of fig2 ). many additional types of handshake signals and handshake signal formats will be familiar to those skilled in the art . referring again to fig9 , a preferred embodiment of the invention may include an aed identifier signal generator 306 . this would allow the crcd to identify the brand and model of maed to which the crcd has been connected , which would allow the crcd to accommodate such issues as signaling and control formats , voltages , and even pin arrangements particular to certain maed brands and models . the aed identifier signal is sent to the crcd microprocessor along the path : 306 → 320 a → 320 b → 310 . aed model identification may also be passed along to the mp . the transmitter 232 and receiver 234 shown in fig8 and 9 may be long range ( e . g . greater than line - of - sight ), short range ( e . g . approximately line - of - sight ), or very short range ( e . g . bluetooth ). furthermore , the crcd may ( instead of , or in addition to , using a transmitter and receiver ) interface : 1 ) with public telephone carriers ( through either a hard - wired connection or short range transmitter / receiver combination ), with telemetry information and mp commands carried over a public telephone connection ; or 2 ) with the internet , with a connection to the internet ( and ultimately , to the mp ) via either : b ) digital subscriber line or any line which is formed from a combination of individual lines ; or in a preferred embodiment of the invention , the crcd would have its own power supply : in an alternative embodiment of the invention , the crcd could obtain power from ( or supply power to ) the maed , on a continuous basis or on an as - needed basis . fig6 to 9 and the associated specification regarding the present example could ( as discussed in conjunction with fig1 and the associated specification , hereinabove ), besides applying to a modified aed , also apply to : a modified manually operated external defibrillator , as discussed in conjunction with fig1 , hereinabove ; and a modified external defibrillator which has both an aed mode and a local mp - controlled ( i . e . non - automatic ) mode . example : detailed description of a modified aed system which may have various embodiments fig1 shows a schematic description of each of the components of a remotely controlled defibrillator , or rcd . communications device 500 includes each of the functional sub - units found in commonly available cellular telephones and other communication devices such as the blackberry ®. these include : 500 may optionally include video communication equipment . this may include a video camera 518 and camera - associated circuits ; and may include a screen 520 and associated screen control circuits , for viewing video images . 506 may be a single antenna which serves both 502 and 504 . alternatively , there may be one antenna for each of 502 and 504 . in yet another alternative embodiment , there may be more that one antenna for the transmitter , each optimized for a different frequency . there may also be more that one antenna for the receiver , each optimized for a different frequency . alternatively , there may be multiple antennae , each serving both 502 and 504 , and each optimized for a different frequency . 512 may be a standalone microprocessor , or may consist of multiple microprocessors . alternatively , data processing may occur in each of 502 - 510 and 514 , 516 , 518 ( if present ), and 520 ( if present ). 514 may be the standard 12 key arrangement as is known in the art , and as is present on many current - day cellular telephones . alternatively 514 may consist of a complete alphanumeric arrangement with at least 26 letters and 10 digits . many other keyboard arrangements and contents will be apparent to those skilled in the art . 516 may be a rechargeable cell as is known in the art . there may optionally be additional access to power from the adapter 530 , or from maed 550 via 530 . these outside - the - cd sources of power may : the power supply is electrically connected to each of the power - requiring sections of 500 ( connections not shown in the figure ). a ) signals which are intended for the control of 500 , which may include : 1 ) signals which control the audio output characteristics ( e . g . volume control ) and / or audio input to ( e . g . microphone gain ) of 500 ; and 2 ) signals which control the video output characteristics from ( e . g . brightness , contrast ) and / or video input to ( e . g . iris size , zoom ) of 500 ; b ) audio , video and text signals for communicating information to the enabler / user of the unit ; and in the example shown in the figure , 500 is in electrical communication with adapter 530 via female / male pin pairs 522 a / 522 b and 522 c / 522 d . alternative links between 500 and 530 are possible including : b ) short - range rf or infrared linkage ( e . g . as is described in conjunction with fig7 , and as is known in the art ). unit 530 receives signals from 504 in 500 . the signals arrive at the decoder via the path 506 → 504 → 522 c → 522 d → 532 . the decoder separates out : 1 ) one or more signals which control “ button press ” ( as described in conjunction with fig8 hereinabove , i . e . causing a defibrillator shock ); and which may control one or more of 2 ) shock synchronization ; 3 ) shock energy and / or voltage ; 4 ) shock waveform ; 5 ) shock electrodes ( in a system with more than two electrodes ): 6 ) commands to pacing circuits ( not shown in fig1 but shown and discussed in the aforementioned applications ) including : g ) anti - tachycardia pacing signals , to attempt termination of a ventricular tachycardia ; 7 ) commands to control a chest compression device ( as discussed in ser . no . 10 / 460 , 458 ; and in ser . no . 11 / 502 , 484 ); 8 ) signals which control the video display , if any , of maed 550 ; 9 ) signals which download new software into the maed ; 10 ) signals which are intended for test purposes — i . e . mp ( or other non - medical personnel ) testing of : 11 ) signals which are intended for teaching purposes during a non - emergency event , which may include : a ) setup information for one or more of the maed , the ap , the cd , the crcd and / or the cdcaed ( as defined in conjunction with fig5 b , hereinabove ); and the aforementioned signals may be “ conditioned ” at 534 and then passed to the maed . the purpose of conditioning is to render the signal format and quality that is outputted at 532 suitable for input to the maed . conditioning may include a variety of processing formats including : a ) one in which there is no signal conditioning post decoder ; b ) one in which there is additional signal conditioning pre - decoder ; and from 534 , signals exit ap and enter the maed via pin arrangement 540 a and 540 b . as indicated hereinabove with respect to the electrical linkage of the cd and the ap , the electrical link may consist of : b ) short - range rf or infrared linkage ( e . g . as is described in conjunction with fig7 , and as is known in the art ). adapter 530 also serves to transfer ecg and other data signals ( both physiologic and equipment - related ) from the maed to the cd . signals are passed from the maed to the ap via pin set 542 a and 542 b . as indicated hereinabove with respect to the electrical linkage of the cd and the ap , the electrical link may consist of : b ) short - range rf or infrared linkage ( e . g . as is described in conjunction with fig7 , and as is known in the art ). signals from the maed are encoded by 536 and conditioned at 538 . signal conditioning in the maed to ap to cd route serves the analogous purpose as signal conditioning in the cd to ap to maed route , i . e . to render the signal amplitude and format acceptable to the cd ( and ultimately , to the remotely located mp ). a ) one in which there is no signal conditioning post encoder ; b ) one in which there is additional signal conditioning pre - encoder ; and a ) be within the same housing as the cd , in which case the composite unit is referred to as the crcd . in this case , at the time of use , assembly of the composite defibrillator device — i . e . the device which is capable of communication with the remote station — entails attaching the crcd to the maed : b ) be within the same housing as the maed , in which case the composite unit is referred to as the cdcaed . in this case , at the time of use , assembly of the composite device entails attaching the cdcaed to the cd ; or c ) may be a stand - alone unit . in this case , at the time of use , assembly of the composite device entails attaching the ap to the maed and attaching the cd to the ap . the maed 550 contains substantially all of the components of an aed , as is known in the art . ecg signals 556 and other telemetry signals ( including physiologic and equipment related telemetry ) 558 , output unit 550 via 542 a / b . the illustration of both outputs going through the same pin is purely schematic ; though it may occur as such , the use of multiple pins , and of non - contact signal transfer arrangements , as is discussed hereinabove , are possible . also externalized is the control of ( i ) the defibrillator circuits 552 ( defibrillation electrodes and sensing input [ if any ] which would be attached to 552 , not shown in the figure ), and ( ii ) other control circuits ( e . g . pacing , screen control [ if any ], troubleshooting and maintenance , etc .). in a preferred embodiment of the invention , the presence of an electrically intact link of both ( i ) the maed to the cd ( via the ap ) and ( ii ) an intact communication link with the mp would , at 554 , disable the connection of the aed logic 560 to 552 . the result would be that a ) the mp would have sole control of shocking ( and pacing , if the pacing feature was present ); and b ) the aed logic / shock decision circuits would be disconnected from the defibrillator charging and shock delivery circuits . the disconnection of the aed logic / shock decision circuits ( contained within 560 ) from the charging and shock delivery circuits 552 could be accomplished by a control signal which either ( i ) originates within 554 or ( ii ) is delivered to 554 when the proper connections have been established . the establishment of the proper connections may be confirmed by a handshaking process which is described hereinabove and hereinbelow , or by other methods which will be obvious to those skilled in the art . embodiments of the invention without the aforementioned disconnect of aed logic from aed shocking circuits are possible . in this instance , either the maed or the remotely located mp could decide to deliver a shock . this might be particularly useful if the maed was operated by a trained person such as a physician or emergency medical technician . embodiments of the invention are possible in which the mp can see what decision the aed logic would have made . in such an embodiment , the aed decision would be a signal which traverses the route 560 → 558 → 542 a → 542 b → etc . fig1 and the associated specification regarding the present example could , besides applying to a modified aed , also apply to a modified manually operated external defibrillator , as discussed in conjunction with fig1 , hereinabove . in such a circumstance , element 560 and its connections would be absent , replaced by a ) a display device for displaying ecg signals for a local medical professional , and b ) local mp control input ( s ) for inputting defibrillation and / or pacing commands — as shown in fig1 . optionally , the remote mp could , by sending a signal to 554 , enable / disable local mp access to defibrillator control . fig1 and the associated specification regarding the present example could also apply to a modified external defibrillator which has both an aed mode and a local mp controlled ( i . e . non - automatic ) mode , as discussed in conjunction with fig1 , hereinabove . in such a circumstance , aed logic device 560 and its connections would be present . in addition ( as shown in fig1 and discussed in the associated specification ), there would be a ) a display device for displaying ecg signals for a local medical professional coupled to 556 , b ) local mp control input ( s ) for inputting defibrillation and / or pacing commands coupled to 554 , and c ) a means for maintaining a hierarchical control structure , i . e . establishing which control source ( among remote mp , local mp and aed logic device ) takes priority . such means could be pre - programmed or pre - wired within 554 , or could be supplied to 554 by a remote mp . fig1 shows additional units and signals to support a handshaking arrangement which may allow the cd to have information about the adequacy of the hookup of : it may also allow the cdcaed or the ap to have information about the adequacy of the hookup of the maed . the purpose of the handshaking is that if the maed receives a signal indicating inadequate hookup , the signal ( arriving at 554 in fig1 ) would restore conventional ( i . e . autonomous ) aed function . it might also cause the maed to attempt to remedy the inadequate connection by electronic means , and / or cause it to notify the enabler of the situation . if the cd receives a signal indicating inadequate hookup , the signal ( arriving at 502 in fig1 ) would be used to notify the mp of the linkage problem . the mp could b ) notify the enabler of the problem , suggesting a better attempt at linking the units ; and / or c ) send a signal which attempts to notify the maed of the failed link , thereby causing a change in maed function to that of a conventional ( autonomous ) aed each of a ), b ) and c ) immediately above may also be performed by the cd itself . to facilitate this , a direct signal connection from the ap to 512 ( not shown in the figure ) would be beneficial . referring again to fig1 , the basic handshake loop is from the microprocessor 602 within cd 600 , generating handshake signal 604 ( corresponding to signal 31 a of fig2 ), transmitted to microprocessor 622 in cdcaed or ap 620 via pins 610 a / b ( or additional pins , or wireless arrangement ), generating handshake signal 624 ( corresponding to signal 31 b of fig2 ), transmitted to microprocessor 602 in cd 600 via pins 612 a / b ( or additional pins , or wireless arrangement ). ser . no . 10 / 460 , 458 describes a variety of alternate handshake signals which may be used to signal a non - received handshake and to signal a restored handshake , one or more of which signals may be used in the present invention . the specification hereinabove , in conjunction with fig2 and 3 gives additional information about approaches to communication confirmation methods and apparatus . in the case of separate maed and ap units , the quality of a maed - ap handshake 626 may be passed along to the cd via 612 a / b . the transmission of a signal indicating a failed ap - maed handshake would have a similar effect as the transmission of a failed ap - cd handshake ( or a failed cdcaed - cd handshake ): 602 would send a signal via transmitter 606 to the mp ; this would be acted on as discussed above . 602 would also cause 606 to send a failed handshake signal ( which , in a preferred embodiment of the invention would indicated the point of failure insofar as it may be known ), in the event that it did not receive a handshake signal within a preset time after sending one . in the case of 622 not receiving a handshake signal in a preset time after sending one , it would issue signal 628 indicating a handshake failure , to the maed . this would initiate , as indicated above , a variety of possible maed actions . furthermore , 628 could be issued if 622 receives a signal indicating that 602 failed to receive a handshake signal . the cdcaed may be manufactured as such at the time of its original build . alternatively , an aed may be modified , post initial production , to have the functionality and components of a cdcaed . in either of the two aforementioned cases , it would be possible to further configure the cdcaed such that the remote control feature could be an option which must be turned on by either a key , another means of identification , a signal , combinations of the aforementioned , or other means as is obvious to those skilled in the art . in the case of a 3 - unit device , although fig1 , 5 c and 10 shows a geometry in which the adapter lies physically between the maed and the cd , it would be possible , in another embodiment of the invention , to have : a ) the adapter connect to the maed but not directly to the cd ; and in yet another embodiment of the invention , it would be possible to have : a ) the adapter connect to the cd but not directly to the maed ; and fig1 a shows one possible embodiment of the apparatus which may connect a cd to a cdcaed : cdcaed 700 can accommodates a cd ( e . g . a cellular telephone ) within appropriate shaped cellular telephone receptacle section 702 . within 702 is a multi - pin connector 704 which will functionally perform as 522 b and 5221 ) of fig1 . fig1 b shows the cell phone 706 in place : 704 has been inserted into a slot within 706 which contains components analogous to 522 a and 522 c of fig1 . additional apparatus to secure the cellular telephone in place may be present . fig1 shows one embodiment of the invention containing apparatus for securing a cd 806 at the end of a maneuverable boom 804 . the boom is part of either the maed or the cdcaed 800 . the purpose of the arrangement would be to let the mp maneuver the cd so that audio and , if present , video communication is optimized . the angular relationships between the cd and the enabler , or between the cd and the victim , may change as the management of the emergency situation progresses , and this feature would be useful in such a circumstance . in the figure , holding apparatus 808 may be an elastic strap which helps fix 806 to a receptacle within 804 . many other arrangements for securing 806 to 804 will be obvious to those skilled in the art . the apparatus shown in fig1 would also be useful in cases where the relationship geometric relationship among cd , enabler and victim does not change ; allowing the mp to do the optimizing of cd position and angulation saves valuable time , i . e . by taking the task away from the enabler . embodiments of the invention in which the boom is either extensible or not extensible are possible . c ) either the mp or the enabler can orient and / or extend the boom , are possible . in embodiments of the invention in which the mp may orient and / or extend the boom , apparatus 802 allows the mp to do so . such apparatus may allow the mp to control the angulation and / or rotation of the boom at one or more points along the shaft , to rotate or tilt the cd at the end of the shaft , to extend or retract the shaft , or combinations of these motions . embodiments of the invention in which one or more of the audio or video interfaces is pan of the maed rather than part of the cd are possible . an obvious example would be to use a larger video display screen or louder audio apparatus that may be part of the maed . however , examples in which the microphone and / or the video camera are part of the maed are also possible . embodiments in which one or more of these components is part of the ap are also possible . example : versions of the system with at least one implantable component fig1 a , 14 b and 14 c show embodiments of the invention in which the cmtd is implanted inside the body . since the cmtds in each of these three figures could be pacemakers or defibrillator - pacemakers , a logic device — which controls the automatic pacing and sensing function of each respective device — is shown within each . referring to fig1 a , cmtd 902 containing logic device 904 is implanted inside of person 900 . in the embodiment shown by fig1 a , the ap 906 is inside the body , and is linked to 902 by a hard - wired connection . signals 910 link ap 906 and cd 908 . the signals may be any short range wireless signal , e . g . radiofrequency , as is known in the art . the cd communicates with a remote station 911 , using any of the means described hereinabove . thus a remotely located medical professional can control the implanted device , i . e . by a ) receiving signals from intracardiac and / or intrathoracic electrodes ( not shown ) sent from 902 to 906 to 908 to the rs 911 ; and b ) sending control signals from the rs 911 to 908 to 906 to 902 . in one embodiment of the invention , the cd is a cellular telephone in the pocket of person 900 , or elsewhere in the vicinity of 900 . other communication devices are possible for the cd . the cd may also be part of a pacemaker / defibrillator programmer . in such a circumstance , the programmer would also contain : a ) display device 912 for displaying intracardiac and / or intrathoracic electrical activity to a local mp ; and b ) at least one of ( i ) local pacing control device ( s ) 914 and ( ii ) local defibrillator control device ( s ) 916 , each of which lets a local mp assess the current and prior heart rhythm , assess the functioning of cmtd , and change its operating parameters . these local control devices would allow the mp to change the operating parameters : for long term use ( e . g . programming an icd &# 39 ; s parameters for vt detection ), and / or for current use ( e . g . dealing with an episode of vt in progress at the time of local mp use ). the display device may also be part of a touch sensitive screen , which would allow a local mp to input commands , in a manner known in the art . embodiments of the invention are possible in which one , two or three of 912 , 914 and 916 ; a ) communicate directly with the cmtd ( shown in the figure by long dashed lines ); b ) communicate with the cmtd via the ap ( not shown in the figure ) by exchanging signals directly with the ap ; c ) communicate with the cmtd via the cd ( shown in the figure by short dashed lines ), along the routes 908 to 906 to 904 , and 904 to 906 to 908 . referring to fig1 b , cmtd 932 containing logic device 934 is implanted inside of person 930 . in this embodiment , the ap 936 which is outside the body , exchanges signals 939 with cmtd 932 by a wireless connection . signals 940 link ap 936 and cd 938 . each of signals 939 and 940 may be any short range wireless signal , e . g . radiofrequency , as is known in the art ; the 936 - 938 connection may also be a hard - wired one . the cd communicates with a remote station 941 , using any of the means described hereinabove . thus a remotely located medical professional can control the implanted device , i . e . by a ) receiving signals from intracardiac and / or intrathoracic electrodes ( not shown ) sent from 932 to 936 to 938 to the rs 941 ; and b ) sending control signals from rs 941 to 938 to 936 to 932 . in one embodiment of the invention , the cd and the adapter are physically linked — as shown for the crcd of fig5 a , and may constitute a communication device carried by person 930 , or be in the vicinity of 930 . the adapter may also be part of a pacemaker / defibrillator programmer . in such a circumstance , the programmer would also contain a ) display device 942 for displaying intracardiac and / or intrathoracic electrical activity to a local mp ; and b ) at least one of ( i ) local pacing control device ( s ) 944 and ( ii ) local defibrillator control device ( s ) 946 , each of which lets a local mp assess the current and prior heart rhythm , assess the functioning of cmtd , and change its operating parameters . these local control devices would allow the mp to change the operating parameters : for long term use ( e . g . programming an icd &# 39 ; s parameters for vt detection ), and / or for current use ( e . g . dealing with an episode of vt in progress at the time of local mp use ). the display device may also be part of a touch sensitive screen , which would allow a local mp to input commands , in a manner known in the art . embodiments of the invention are possible in which one , two or three of 942 , 944 and 946 : a ) communicate directly with the cmtd ( shown in the figure by long dashed lines ); b ) communicate with the cmtd via the ap by directly exchanging signals with the ap ( shown in the figure by short dashed lines ). referring to fig1 c , cmtd 962 containing logic device 964 is implanted inside of person 960 . in the embodiment shown by fig1 c , the ap 966 is inside the body , and is linked to 962 by a hard - wired connection ; cd 968 is also inside the body , and is linked to ap 966 by a hardwired connection . the cd communicates with remote station 970 , using any of the wireless means described hereinabove . thus a remotely located medical professional can control the implanted device , i . e . by a ) receiving signals from intracardiac and / or intrathoracic electrodes ( not shown ) sent from 962 to 966 to 968 to 970 ; and b ) sending control signals from the 970 to 968 to 966 to 962 . in one embodiment of the invention , one or more of the adapter connections ( to 962 and / or 968 ) may be wireless . a pacemaker / defibrillator programmer may be used in conjunction with the implanted hardware . in such a circumstance , the programmer would also contain : a ) display device 972 for displaying intracardiac and / or intrathoracic electrical activity to a local mp ; and b ) at least one of ( i ) local pacing control device ( s ) 974 and ( ii ) local defibrillator control device ( s ) 976 , each of which lets a local mp assess the current and prior heart rhythm , assess the functioning of cmtd , and change its operating parameters . these local control devices would allow the mp to change the operating parameters : for long term use ( e . g . programming an icds parameters for vt detection ), and / or for current use ( e . g . dealing with an episode of vt in progress at the time of local mp use ). the display device may also be part of a touch sensitive screen , which would allow a local mp to input commands , in a manner known in the art . embodiments of the invention are possible in which one , two or three of 972 , 974 and 976 : b ) communicate with the cmtd via the ap ( not shown in the figure ) by exchanging signals directly with the ap ; c ) communicate with the cmtd via the cd ( shown in the figure by short dashed lines ). there is thus described apparatus and methodology which will allow a cell phone or other portable communications device to serve as the communications end of a remotely controlled medical monitoring and treatment device , such as a defibrillator , thereby facilitating the adaption of minimally modified aeds , manually controlled defibrillators and implanted pacemakers and defibrillators to serve as a sub - unit of remotely controlled defibrillators . many other modifications based on similar principles will be obvious to those skilled in the art .
an electronic medical monitoring and treatment apparatus allows a person access to a medical professional who can monitor , diagnose and treat the person from a remote site . the apparatus includes a medical monitoring and treatment device coupled to an electronic adapter designed to communicate with a local , first transmitting / receiving device which , in turn , is adapted to electronically communicate with a remote , second transmitting / receiving device used by the mp . the mmtd may comprise a cardiac treatment circuit for effecting cardiac pacing and / or defibrillation and a cardiac signal circuit for receiving cardiac signals . the cardiac signals are transmitted from the signal circuit to the second t / r device for evaluation by the mp , the mp may transmit a control signal to the treatment circuit , and , in response thereto , the treatment circuit may generate one or more electrical pulses for treatment of the person .