Granted Patent B2

US 12,533,108 · App. 18/600,243 · Granted Jan 27, 2026

Inventors: Minsoo Na (Seoul, KR); Hwanseung Yu (Seoul, KR)

Assignee: SAMSUNG MEDISON CO., LTD.

A61B8/4472A61B8/4254A61B8/54A61B8/56A61B90/06A61B2090/0809A61B2562/029

Abstract

Claims (63)

1 . A wireless ultrasound probe comprising:

a battery circuit;

a switching circuit electrically connected to the battery circuit;

a pulse circuit electrically connected to the switching circuit to output a transmission signal including a pulse voltage;

a transducer configured to transmit an ultrasound signal to an object by receiving the transmission signal;

a capacitor electrically connected to the pulse circuit; and

a discharge module electrically connected to the capacitor,

wherein the switching circuit is configured to

generate a high voltage used by the pulse circuit to output the transmission signal and store the high voltage in the capacitor, and

the discharge module is configured to

detect whether a first event has occurred that causes damage to the wireless ultrasound probe due to the high voltage stored in the capacitor, and

in response to detecting the first event, start a discharge operation for discharging the high voltage stored in the capacitor,

wherein a switch is provided between the capacitor and the discharge module, and

the discharge module is further configured to:

transmit a closing control signal to the switch in response to detecting the first event, and

discharge the high voltage stored in the capacitor.

2 . The wireless ultrasound probe of claim 1 , wherein the first event comprises a change in a bias voltage related to a magnitude of the transmission signal.

3 . The wireless ultrasound probe of claim 1 , wherein the discharge module is further configured to transmit the high voltage stored in the capacitor to the battery circuit.

4 . The wireless ultrasound probe of claim 1 , wherein

the discharge module is further configured to,

in response to detecting the first event, transmit, to the pulse circuit, a dummy control signal that causes the pulse circuit to output a dummy signal, and

the pulse circuit is configured to,

in response to receiving the dummy control signal, transmit the dummy signal to allow the discharge module to discharge the high voltage stored in the capacitor.

5 . The wireless ultrasound probe of claim 1 , wherein the first event comprises a fall of the wireless ultrasound probe.

6 . The wireless ultrasound probe of claim 5 , further comprising:

a receiver module configured to generate ultrasound data based on reception signals that the transducer receives from the object; and

a sensor module,

wherein the sensor module is configured to

obtain position information of the wireless ultrasound probe, and

detect whether the wireless ultrasound probe is falling, based on the position information and the ultrasound data.

7 . The wireless ultrasound probe of claim 6 , wherein

the sensor module is further configured to

detect whether an impact due to the fall has occurred, and

the discharge module is further configured to

identify whether the damage to the wireless ultrasound probe is detected, and

transmit, to a terminal, confirmation information related to discontinuing use of the wireless ultrasound probe when the damage is detected.

8 . The wireless ultrasound probe of claim 1 , wherein the first event comprises water leakage in the wireless ultrasound probe.

9 . The wireless ultrasound probe of claim 8 , further comprising

a sensor module configured to

obtain humidity information of a moisture vulnerable area of the wireless ultrasound probe, and

identify, based on the humidity information, whether a humidity value greater than or equal to a threshold humidity value is detected in the moisture vulnerable area.

10 . A control method of a wireless ultrasound probe, the control method comprising:

generating, by the wireless ultrasound probe, a high voltage for outputting a transmission signal and storing the high voltage in a capacitor;

detecting, by the wireless ultrasound probe, whether a first event has occurred that causes damage to the wireless ultrasound probe due to the high voltage stored in the capacitor; and

in response to detecting the first event, starting, by the wireless ultrasound probe, a discharge operation for discharging the high voltage stored in the capacitor,

wherein the starting of the discharge operation comprises

transmitting, by a discharge module of the wireless ultrasound probe, a closing control signal to a switch of the wireless ultrasound probe in response to detecting the first event; and

discharging, by the discharge module, the high voltage stored in the capacitor.

11 . The control method of claim 10 , wherein the first event comprises a change in a bias voltage related to a magnitude of the transmission signal.

12 . The control method of claim 10 , wherein the discharging, by the discharge module, of the high voltage stored in the capacitor comprises transmitting the high voltage stored in the capacitor to a battery circuit.

13 . The control method of claim 10 , wherein

the starting of the discharge operation comprises:

in response to detecting the first event, transmitting, by the discharge module of the wireless ultrasound probe, to a pulse circuit of the wireless ultrasound probe, a dummy control signal used to output a dummy signal; and

in response to receiving the dummy control signal, transmitting, by the pulse circuit, the dummy signal to allow the discharge module to discharge the high voltage stored in the capacitor.

14 . The control method of claim 10 , wherein the first event comprises a fall of the wireless ultrasound probe.

15 . The control method of claim 14 , wherein

the detecting of whether the first event has occurred comprises:

obtaining position information of the wireless ultrasound probe; and

detecting whether the wireless ultrasound probe is falling, based on the position information and ultrasound data generated based on reception signals received by the wireless ultrasound probe.

16 . The control method of claim 15 , after the starting of the discharge operation, further comprising:

detecting whether an impact due to the fall has occurred;

identifying whether the damage to the wireless ultrasound probe is detected; and

transmitting, to a terminal, confirmation information related to discontinuing use of the wireless ultrasound probe when the damage is detected.

Assignments (1)

Priority Claims (2)

Continuity (1)

References Cited (27)