Retractable multi-use cardiac monitor
A retractable multi-use cardiac monitor is provided that includes a memory, and a first side that includes a first housing where a first sensing connector is on the outside of the first housing, and where the first sensing connector is configured to collect electrocardiogram (ECG) data and store ECG data onto the memory. The retractable multi-use cardiac monitor also includes a second housing including a wire retractor and a second sensing connector, where the second sensing connector is on the outside of the second housing, and the wire retractor is configured to extend and retract a wire that connects the second and first sides, and where the second sensing connector is configured to collect ECG data and store ECG data onto the memory. The retractable multi-use cardiac monitor further includes a wireless radio configured to transmit a portion of collected ECG data from the memory to a destination.
1. A method of determining an optimum electrode vector length between a first sensing connector of a first side of a retractable multi-use cardiac monitor and a second sensing connector of a second side of the retractable multi-use cardiac monitor, comprising:
(A) receiving from the retractable multi-use cardiac monitor at a smart phone data representing a distance between the first sensing connector of the retractable multi-use cardiac data monitor and the second sensing connector of the retractable multi-use cardiac data monitor, wherein the smart phone includes a processor;
(B) receiving electrocardiogram (ECG) data collected by the retractable multi-use cardiac data monitor through the first and second sensing connectors;
(C) recording the ECG data collected in step B and the data representing the distance between the first and second sensing connectors received in step A;
(D) iteratively repeating steps A-C a number of times;
(E) calculating, by the processor of the smart phone, an optimum electrode vector length between the first sensing connector of the first side of the retractable multi-use cardiac monitor and the second sensing connector of the second side of the retractable multi-use cardiac monitor based on the ECG data collected in step B and the data representing the distance between the first and second sensing connectors received in step A;
(F) generating a notification of that the optimum electrode vector length has been found.
2. A method of determining an optimum electrode vector length between a first sensing connector of a first side of a retractable multi-use cardiac monitor and a second sensing connector of a second side of the retractable multi-use cardiac monitor, comprising:
(A) determining a distance between the first sensing connector of the retractable multi-use cardiac data monitor and the second sensing connector of the retractable multi-use cardiac data monitor, and recording data representing the distance;
(B) collecting electrocardiogram (ECG) data through the first and second sensing connectors and recording the collected ECG data;
(C) iteratively repeating A-B a number of times;
(E) calculating, by a processor of the retractable multi-use cardiac monitor an optimum electrode vector length between the first sensing connector of the first side of the retractable multi-use cardiac monitor and the second sensing connector of the second side of the retractable multi-use cardiac monitor based on the ECG data collected in step B and the data representing the distance between the first and second sensing connectors recorded in step A;
(F) generating a notification of that the optimum electrode vector length has been found.