fig1 depicts a present - art monitoring system for the ecg . the patient 101 is shown supine on bed 104 or analogous surface for repose or transport . outside and beyond the perimeter 104 of the bed , dashed lines 107 demarcate the outer boundary or perimeter of the infectious zone , which is beyond the patient &# 39 ; s reach . electronic monitor console 110 is shown outside the infectious zone , although it is frequently positioned at the patient &# 39 ; s bedside and within reach of the patient , hence within the infectious zone . present - art practice generally locates the monitor console according to physical constraints of the available space and operator convenience , without attention to issues of contamination by the patient . trunk cable 112 is shown connected to the console by connector 113 at its proximal end , and possesses a connector or yoke 114 at its distal end . three conductive wires 117 comprise the serial cable shown herein , but more elaborate serial cables contain additional electrical wires to enable multiple ecg leads ( waveforms ). each conductive wire comprising the serial cable terminates at its distal end in a conductive electrode 121 which is conductively coupled to the skin surface . other types of conductive couplings may be used , not shown , such as subcutaneous or intravascular . the proximal end of the serial cable connects to the yoke 114 of the trunk cable , such connection shown herein by pin connectors 116 , though other types of connectors may be employed . the present - art system configuration shown in fig1 makes evident the ease of frequent contamination of the trunk cable and its yoke connector by the patient , bedclothes , and other personal sundries residing with the patient . the serial cable is generally disposable . fig2 depicts a present - art monitoring system for body temperature , showing the patient 201 , the perimeter 204 of the bed , and the outer boundary or perimeter 207 of the infectious zone . electronic monitor console 210 is shown outside the infectious zone and engages input connector 213 on the proximal end of the trunk cable 212 . the distal end of the trunk cable possesses connector 214 which couples to connector 216 on the proximal end of serial cable 217 , possessing the requisite number of conductors to convey the signal representing body temperature . the distal end of the serial cable connects to the temperature sensor 222 , such as thermistor or thermocouple , shown in the axilla of the patient . fig2 , in a manner analogous to fig1 , shows the consistent contamination of the trunk cable by the patient and his intimate physical environment . fig3 depicts a present - art monitoring system for non - invasive blood pressure measurement , showing the patient 301 , the perimeter of the bed 304 , and the perimeter 307 of the infectious zone . electronic monitor console 310 is shown outside the infectious zone and receives pneumatic input connector 313 on the proximal end of the pneumatic trunk cable 312 ( tubular trunk line ). the distal end of the tubular pneumatic trunk line possesses connector 314 , which couples pneumatically to connector 316 on the proximal end of the pneumatic serial cable 317 , the serial tubular line to inflatable blood - pressure cuff 323 . the electronic console contains an air pump to inflate the cuff , a valve to gradually bleed air from the cuff after adequate inflation , a pressure sensor to measure air pressure within the tubular lines and cuff , and algorithms for controlling the operation of the system and for computing blood pressure from the pulsating pressure fluctuations which occur during deflation of the pressurized cuff . this method is well - known to those skilled in the art , and further details are not herein provided . while disposable blood pressure cuffs are now available , but not always employed , their serial pneumatic line 317 is always short , and connector 316 lies within the infectious zone , as does its mating connector 314 ; the pneumatic trunk cable 312 extending to the monitor console 310 is extensively within the bed and infectious zone . fig4 depicts the first configuration applied to ecg monitoring , showing the patient 401 , the perimeter 404 of the bed , and the perimeter 407 of the infectious zone . electronic monitor console 410 is located outside the infectious zone , and receives connector 413 from the proximal end of trunk cable 426 . trunk cable 426 lies entirely outside the infectious zone , as does the connector or yoke 414 at its distal end . thus , the trunk cable is not subject to direct contamination by the patient or his intimate environment . pin connectors 416 , affixed to the proximal end of serial cable 418 , also lie outside the infectious zone , but serial cable 418 enters the infectious zone and extends to the patient , where ecg electrodes 421 at the distal ends of the serial cable &# 39 ; s wires are conductively coupled to the patient . compared to present art as shown in fig1 , the configuration as drawn in fig4 shows the trunk cable to be shorter and the disposable serial cable to be longer than present art . fig5 depicts the first configuration applied to monitoring of temperature , showing patient 501 , the perimeter 504 of the bed , and the perimeter 507 of the infectious zone . electronic monitor console 510 is located outside the infectious zone , and receives connector 513 from the proximal end of trunk cable 526 . trunk cable 526 lies entirely outside the infectious zone , as do connector 513 at its proximal end and connector 514 at its distal end . thus , the trunk cable is not subject to direct contamination by the patient or his intimate environment . connector 516 at the proximal end of serial cable 518 also lies outside the infectious zone , but serial cable 518 enters the infectious zone and extends to the patient , where temperature sensor 522 at the distal end resides in the patient &# 39 ; s axilla . compared to present art as drawn in fig2 , the configuration as drawn in fig5 shows the trunk cable to be shorter and the disposable serial cable to be longer than present art . fig6 depicts the first configuration applied to monitoring of blood pressure , showing patient 601 , the perimeter 604 of the bed , and the perimeter 607 of the infectious zone . electronic monitor console 610 is located outside the infectious zone , and receives connector 613 from the proximal end of pneumatic trunk cable 626 . trunk cable 626 lies entirely outside the infectious zone , as does pneumatic connector 614 at its distal end . thus , pneumatic trunk cable 626 is not subject to direct contamination by the patient or his intimate environment . pneumatic connector 616 at the proximal end of serial pneumatic cable 618 also lies outside the infectious zone ; serial pneumatic cable 618 enters the infectious zone and extends to the patient , where blood - pressure cuff 623 at the distal end is wrapped around the patient &# 39 ; s arm . compared to present art as drawn in fig3 , the configuration as drawn in fig6 shows the pneumatic trunk cable to be shorter and the disposable serial pneumatic cable to be longer than present art . fig7 depicts the second configuration applied to ecg monitoring , showing patient 701 , the perimeter 704 of the bed , and the perimeter 707 of the infectious zone . electronic monitor console 710 is located outside the infectious zone , and receives connector 713 from the proximal end of trunk cable 726 . trunk cable 726 lies entirely outside the infectious zone 707 , as does yoke connector 714 at its distal end . thus , trunk cable 726 is not subject to direct contamination by the patient or his intimate environment . pin connectors 715 are affixed to the proximal end of an intermediate cable 733 , and also lie outside the infectious zone , while intermediate cable 733 enters the infectious zone and extends to the proximal end of the serial cable 717 . pin - receptive connectors 734 at the distal end of the intermediate cable mate with pin connectors 716 at the proximal end of the serial cable . the distal ends of wires comprising the serial cable terminate in conductive electrodes 721 which are conductively coupled to the patient . in this second configuration , both the serial cable and the intermediate cable are disposable . this permits use of serial cables as presently manufactured , which are not sufficiently long to reliably extend outside the infectious zone , while the intermediate cable of simple structure and inexpensive serves as an extension line for the serial cable and reaches outside the infectious zone to the yoke connector 714 of the trunk cable 726 . essentially , serial cable 717 linked to intermediate cable 733 replaces serial cable 418 of fig4 . fig8 depicts the second configuration applied to monitoring of temperature , showing patient 801 , the perimeter 804 of the bed , and the perimeter 807 of the infectious zone . electronic monitor console 810 is located outside the infectious zone , and receives connector 813 from the proximal end of trunk cable 826 . trunk cable 826 lies entirely outside the infectious zone 807 , as does connector 814 at its distal end . thus , trunk cable 826 and its connectors are not subject to direct contamination by the patient or his intimate environment . mating connector 815 is affixed to the proximal end of an intermediate cable 833 , and also lies outside the infectious zone , while intermediate cable 833 enters the infectious zone and extends to the proximal end of the serial cable 817 . at the distal end of intermediate cable 833 , receptive connector 834 mates with connector 816 at the proximal end of serial cable 817 . the distal end of serial cable 817 connects to the temperature sensor , which is shown nestled in the patient &# 39 ; s axilla . in this second configuration for temperature monitoring , both serial cable 817 and intermediate cable 833 are disposable . essentially , serial cable 817 linked to intermediate cable 833 replaces serial cable 518 of fig5 . fig9 depicts the second configuration applied to monitoring of blood pressure , showing patient 901 , the perimeter 904 of the bed , and the perimeter 907 of the infectious zone . electronic monitor console 910 is located outside the infectious zone , and receives pneumatic connector 913 from the proximal end of pneumatic trunk cable 926 . trunk cable 926 lies entirely outside the infectious zone 907 , as does pneumatic connector 914 at its distal end . thus , pneumatic trunk cable 926 and its connectors are not subject to direct contamination by the patient or his intimate environment . mating connector 915 is affixed to the proximal end of an intermediate pneumatic cable 933 , and also lies outside the infectious zone , while intermediate pneumatic cable 933 enters the infectious zone and extends to the proximal end of the serial cable 917 . at the distal end of intermediate pneumatic cable 933 , receptive pneumatic connector 934 mates with pneumatic connector 916 at the proximal end of serial pneumatic cable 917 . the distal end of pneumatic serial cable 917 connects to the blood pressure cuff 923 , which is wrapped around the patient &# 39 ; s arm . in this second configuration for monitoring of blood pressure , both serial pneumatic cable 917 and intermediate pneumatic cable 933 are disposable . essentially , serial pneumatic cable 917 linked to intermediate pneumatic cable 933 replaces serial pneumatic cable 618 of fig6 . present - day disposable blood - pressure cuffs generally possess a short length of pneumatic cable ( tubing ) permanently affixed thereto , which would serve as the serial pneumatic cable 917 of the present fig9 . fig1 a - 10b depicts sheaths primarily used for encasing the trunk cable of the monitoring system , and could also be used for the other cables as well . fig1 a is a longitudinal section along the central axis showing an configuration having a pleated sheath with end - partitions . the pleated sheath 1080 is generally shown , with radially - oriented pleats 1081 , end - partition 1082 possessing apertures 1083 a and 1083 b through both of which the cable is inserted , and then one end - partition is slidably drawn along the entire length of the cable . at the trunk cable &# 39 ; s proximal end the connector protrudes slightly to enable connection to the monitor console ; at the distal end the trunk cable may protrude sufficiently to allow connection of the serial cable , and the region of such connection may then be inserted inside the sheath so that the trunk cable at its distal end is fully protected by the sheath . as previously described , the distal end of the trunk cable and its mating to the proximal end of the serial cable , or the proximal end of the intermediate cable in the second configuration , are always maintained outside of the infectious zone , and this is maintained during disposition of the sheath around and over said cables . fig1 b is a longitudinal section along the central axis of another configuration depicting a sheath with a compact telescopic form , which may be drawn along the entire length of the trunk cable and connections made as described above for a pleated sheath . the telescopic sheath 1090 is generally shown , with overlying folds 1091 , end - partition 1092 possessing apertures 1093 a and 1093 b . the apertures 1083 and 1093 , if true voids in the material of the end - partition , are smaller than the diameter of the cable so that the end - partition snugly surrounds the cable and seals it from the external environment . alternatively , the aperture may be replaced by a slit which is parted to insert the cable . end - partitions 1082 and 1092 are advantageously elastic or compliant materials to perform the function of a seal around the cable . if the material comprising the end - partition is sponge - like , it may be impregnated with an antimicrobial , which would be wiped along the cable during insertion as the end - partition is drawn along the entire length of the cable . the sheath material may be made of any number of elastomeric materials , and may or may not incorporate an anti - microbial agent . alternatively , the anti - microbial agent may be applied to the inner and / or outer surfaces of the sheath material . while the two configurations of a sheath depicted herein show the sheath material in a folded manner in order to reduce the space needed to package the component , an alternative means of collapsing the sheath may be to simply bundle or bunch the material together . other configurations for the sheath ( not shown ) may consist of other means for enclosing each end of the sheath to capture it against the cable or the connector . in one configuration an adhesive material may be applied to the end of the sheath , which is then compressed against the cable or connector . alternatively , the ends may be made with an elastic band or other cinching means which can cinch down against the cable or the connector . yet other configurations of the sheath may provide sufficient material to allow the sheath to extend over multiple cables of the monitoring system . in this configuration the sheath would extend into the infectious zone . it may also be made of sufficient length to reach from the monitor to the patient along the entire length of multiple cables . while preferred configurations have been described with particularity and with reference to the drawings , modifications and variations of the foregoing will be apparent to those of skill in the art utilizing the techniques disclosed herein . it is , therefore , to be understood that such configurations are illustrative and not limiting on the scope of the present application and that the application encompasses such modifications and variations . 2 . the system wherein said serial cable proximal end connects to a wireless transmitter and said trunk cable distal end connects to a wireless receiver . the system wherein said serial cable proximal end connects to a wireless transmitter and a wireless receiver is connected to said monitor . the system wherein said wireless receiver is contained within said monitor &# 39 ; s enclosure . the system wherein said intermediate cable proximal end connects to a wireless transmitter and said trunk cable distal end connects to a wireless receiver . the system wherein said intermediate cable proximal end connects to a wireless transmitter and a wireless receiver is connected to said monitor .
a physical configuration of cables and a wireless communication system for connecting a monitoring apparatus to a human patient , where said patient and his immediate surroundings define a potentially infectious contaminated zone . the configuration provides for the monitoring apparatus and a wireless receiver to lie outside of the contamination zone , and one or more serial cables to interface with said patient within said infectious zone . a wireless transmitter is connected to said serial cable proximal end and configured to wirelessly transmit patient information to said wireless receiver which is connected to the monitoring apparatus . this physical configuration prevents contamination of the monitoring apparatus and wireless receiver , so they may be reused on successive patients , and prevents the transfer of infective agents to a subsequent patient in a series of patients . the serial cable used to contact the patient within his contamination zone may be disposable . examples of monitoring various physiological parameters are provided to exemplify the universal concept of such physical configuration . in certain embodiments the wireless transmitter may be integrated with the sensor device attached to the patient , and / or the wireless receiver may be integrated with the monitoring apparatus .