Granted Patent B2

US 12,656,321 · App. 18/222,669 · Granted Jun 16, 2026

Inventors: Min Soo Na (Hongcheon-Gun, KR); Yong Cheol Hyeon (Hongcheon-Gun, KR)

Assignee: SAMSUNG MEDISON CO., LTD.

G01N29/30

Abstract

Claims (54)

1 . An ultrasound device, comprising:

a plurality of ultrasonic probes, wherein each of the plurality of ultrasound probes comprises transducers;

a transceiver configured to deliver transmission signals to the plurality of ultrasonic probes and receive reception signals from the plurality of ultrasonic probes;

channels configured to deliver the transmission signals and the reception signals;

a controller configured to generate a test input signal, a control signal and a selection signal;

a relay unit configured to select a target ultrasonic probe connected to the channels among the plurality of ultrasonic probes based on the control signal;

and

a signal output unit configured to select a target channel among the channels based on the selection signal and output the test input signal to the target channel.

2 . The ultrasound device of claim 1 , further comprising:

resistance elements connected between the signal output unit and the channels.

3 . The ultrasound device of claim 1 , further comprising:

an analog-to-digital converter configured to analog-to-digital convert a test output signal generated by reflection of the test input signal from the target ultrasonic probe.

4 . The ultrasound device of claim 3 , wherein the controller is configured to calculate a capacitance of the target ultrasonic probe based on the test output signal, and detect whether the target channel is defective based on the calculated capacitance.

5 . An ultrasound device, comprising:

a transceiver connected to channels configured to deliver transmission signals and reception signals;

a controller configured to generate a test signal, a control signal, and a first selection signal;

a relay unit comprising ports, and configured to connect some of the ports and the channels based on the control signal;

signal distributors connected to the ports, respectively, and configured to distribute the test signal into distribution signals; and

a first signal output unit configured to select one signal distributor among the signal distributors based on the first selection signal, and output the test signal to the one signal distributor,

wherein the distribution signals are delivered to target ports connected to the one signal distributor.

6 . The ultrasound device of claim 5 , wherein the signal distributors comprise a number of distribution resistance elements obtained by multiplying the number of the ports by the number of the channels.

7 . The ultrasound device of claim 5 , wherein, when the control signal is a first control signal, the relay unit connects the target ports and the channels based on the first control signal.

8 . The ultrasound device of claim 7 , wherein the controller is configured to further generate a second selection signal,

the ultrasound device further comprises:

a second signal output unit configured to selectively output the distribution signals based on the second selection signal; and

an analog-to-digital converter configured to analog-to-digital convert the selectively output distribution signals, and

the controller is configured to inspect connection states of the target ports based on the distribution signals.

9 . The ultrasound device of claim 5 , wherein, when the control signal is a second control signal, the relay unit connects the channels with ports different from the target ports among the ports based on the second control signal.

10 . The ultrasound device of claim 9 , wherein the controller is configured to further generate a second selection signal,

the ultrasound device further comprises:

a second signal output unit configured to selectively output leakage signals generated from the target ports based on the second selection signal; and

an analog-to-digital converter configured to analog-to-digital convert the selectively output leakage signals, and

the controller is configured to inspect leakage states of the target ports based on the leakage signals.

11 . A self-inspection method of an ultrasound device, the self-inspection method comprising:

selecting a target ultrasonic probe connected to channels configured to deliver transmission signals and reception signals among a plurality of ultrasonic probes based on a control signal, wherein each of the plurality of ultrasonic probes comprises transducers;

selecting a target channel among the channels based on a selection signal;

outputting a test input signal to the target channel;

analog-to-digital converting a test output signal generated by reflection of the test input signal from the target ultrasonic probe; and

calculating a capacitance of the target ultrasonic probe based on the test output signal.

12 . The self-inspection method of claim 11 , further comprising:

detecting whether the target channel is defective based on the calculated capacitance.

13 . The self-inspection method of claim 12 , wherein the detecting comprises comparing the capacitance with an initial capacitance of the target ultrasonic probe.

14 . A self-inspection method of an ultrasound device, comprising:

delivering distribution signals into which a test signal is distributed to target ports among ports included in relays based on a first selection signal;

connecting channels configured to deliver transmission signals and reception signals with the target ports based on a control signal;

selectively outputting the distribution signals based on a second selection signal;

analog-to-digital converting the selectively output distribution signals; and

inspecting connection states of the target ports based on the distribution signals.

15 . A self-inspection method of an ultrasound device, comprising:

delivering distribution signals into which a test signal is distributed to target ports among ports included in relays based on a first selection signal;

connecting channels configured to deliver transmission signals and reception signals with ports different from the target ports among the ports based on a control signal;

selectively outputting leakage signals generated from the target ports based on a second selection signal;

analog-to-digital converting the selectively output leakage signals; and

inspecting leakage states of the target ports based on the leakage signals.

Assignments (1)

Priority Claims (1)

Continuity (1)

References Cited (29)