IP Library Granted Patent US 12,594,063
Granted Patent B2
US 12,594,063 · App. 18/635,235 · Granted Apr 7, 2026

Tissue imaging in presence of fluid during biopsy procedure

Inventor: Biao Chen (Newark, DE)
Assignee: Hologic, Inc.
A61B10/0266A61B10/0096G06T7/10
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Quick Facts
Patent No.
US 12,594,063
App. No.
18/635,235
Granted
Apr 7, 2026
Kind
B2
Abstract

A hybrid image based on different tissue specimen images is generated to compensate for blood and other fluids that interfere with imaging. Specimen is deposited into tray with fluid. X-ray and camera imaging devices acquire images of specimen and fluid. X-ray and optical images are processed for generation of hybrid image. Transparency modifications allow for multiple and different images to contribute to depiction of specimen edges or boundaries that would otherwise appear less clear in x-ray image due to interfering fluid. Transparency modifications in hybrid image also provide for sufficiently high transparency in certain optical image portions that would otherwise be opaque so that objects of interest depicted in x-ray image but not optical image are visible.

Claims (42)

1 . A specimen imaging apparatus, comprising:

a tissue holder assembly defining a tissue storage compartment for a severed tissue specimen;

an x-ray imaging system arranged relative to the tissue storage compartment to acquire an x-ray image of the severed tissue specimen in the tissue storage compartment;

an optical camera imaging system arranged relative to the tissue storage compartment to acquire an optical image of the severed tissue specimen in the tissue storage compartment, wherein the optical image includes an edge of the severed tissue specimen;

an image processor in communication with the x-ray imaging system and the optical camera imaging system, the image processor being configured to receive the x-ray image and the optical image, and generate a hybrid image based at least in part upon the x-ray image and the optical image, and the edge of the severed tissue specimen depicted in the optical image, and wherein the image processor being further configured to detect the edge of the severed tissue specimen depicted in the optical image based on a pre-determined minimum contrast difference between a portion of the severed tissue specimen and a portion of the tissue storage compartment depicted in the optical image; and

a display in communication with the image processor, the hybrid image being presented to a user of the specimen imaging apparatus through the display.

2 . The specimen imaging apparatus of claim 1 , wherein the severed tissue specimen comprises a severed breast tissue specimen, wherein a calcification in the severed breast tissue specimen is depicted in the x-ray image but not the optical image.

3 . The specimen imaging apparatus of claim 1 , wherein the tissue holder assembly comprises a tray defining the tissue storage compartment, wherein the tray is rotatable within the tissue holder assembly, the specimen imaging apparatus being configured to rotate the tray from a first position in which the severed tissue specimen has been deposited into the tissue storage compartment to a second position, wherein the x-ray and optical camera imaging systems are configured to acquire the respective x-ray and optical images of the severed tissue specimen while the tray is in the second position.

4 . The specimen imaging apparatus of claim 1 , the image processor being configured to generate the hybrid image based on the x-ray image being overlaid with the optical image and determined portions of the optical image being semi-transparent so that underlying portions of the x-ray image are at least partially visible through the determined portions of the optical image, wherein a first transparency of a first portion of the optical image depicting the edge of the severed tissue specimen is lower than a second transparency of a second portion of the optical image depicting an interior or middle portion of the severed tissue specimen.

5 . The specimen imaging apparatus of claim 1 , wherein the edge of the severed tissue specimen depicted in the optical image is detected with reference to a wall of the tissue storage compartment.

6 . The specimen imaging apparatus of claim 1 , the image processor comprising a first pre-processor and a second pre-processor configured to execute respective pre-processing on the respective x-ray and optical images in preparation for generation of the hybrid image.

7 . The specimen imaging apparatus of claim 6 , the first pre-processor being configured to execute a first brightness filter on the x-ray image, the first brightness filter being configured to identify portions of the x-ray image having a brightness level greater than a pre-determined maximum brightness threshold, and mask or reduce the brightness of the identified portions of the x-ray image.

8 . The specimen imaging apparatus of claim 7 , wherein the first brightness filter is configured to mask or reduce brightness of at least one of a portion of the severed tissue specimen depicted in the x-ray image and a structural component of the tissue storage compartment imaged during acquisition of the x-ray image.

9 . The specimen imaging apparatus of claim 7 , the first pre-processor being further configured to execute a second brightness filter on the x-ray image, the second brightness filter being configured to identify portions of the x-ray image having a brightness level less than a pre-determined minimum brightness threshold, and mask or increase the brightness of the identified portions of the x-ray image having a brightness level less than the pre-determined minimum brightness threshold.

10 . The specimen imaging apparatus of claim 9 , wherein identified portions of the x-ray image having a brightness level less than the pre-determined minimum brightness threshold depict a bottom surface of the tissue storage compartment onto which the severed tissue specimen is deposited.

11 . The specimen imaging apparatus of claim 6 , the first pre-processor being configured to execute a noise reduction filter on the x-ray image.

12 . The specimen imaging apparatus of claim 6 , the second pre-processor being configured to increase a transparency of a portion of the optical image from a first transparency to a second transparency that is greater than the first transparency, wherein the second transparency results in the portion of the optical image being semi-transparent so that the portion of the optical image is visible to the user and underlying portions of the x-ray image are at least partially visible to the user through the semi-transparent portion of the optical image.

13 . The specimen imaging apparatus of claim 12 , the second pre-processor being configured to increase respective transparencies of respective portions of the optical image such that the optical image comprises different transparency levels.

14 . The specimen imaging apparatus of claim 6 , the second pre-processor being configured to generate semi-transparent graphical representation of the severed tissue specimen based at least in part upon the edge of the severed tissue specimen, the hybrid image comprising the generated semi-transparent graphical representation.

15 . The specimen imaging apparatus of claim 14 , wherein the image processor is configured to integrate the generated semi-transparent graphical representation into the x-ray image by replacing pixel data of the x-ray image with pixel data of the generated semi-transparent graphical representation.

16 . The specimen imaging apparatus of claim 1 , the specimen imaging apparatus being further configured to receive user input through a user interface of the display and modify the user interface in response to the user input by modifying the hybrid image so that the x-ray image is no longer overlaid with the optical image, and the x-ray image and the optical image are separately presented to the user through the user interface.

17 . The specimen imaging apparatus of claim 1 , wherein the tissue storage compartment is a first tissue storage compartment and the severed tissue specimen is a first severed tissue specimen, the x-ray image includes the first severed tissue specimen deposited in the first tissue storage compartment, and the optical image includes a plurality of severed tissue specimens including the first severed tissue specimen deposited into a plurality of respective tissue storage compartments including the first tissue storge component, the image processor being configured to:

identify a portion of the optical image that corresponds to the first severed tissue specimen deposited in the first tissue storage compartment depicted in the x-ray image;

crop the identified portion of the optical image; and

register the x-ray image and the cropped portion of the optical image with reference to a component of the tissue storage compartment, wherein the hybrid image is generated based at least in part upon the registered x-ray and the cropped portion of the optical image.

18 . The specimen imaging apparatus of claim 17 , wherein the component of the tissue storage compartment is at least one of a wall, a tray defining the tissue storage compartment, an identifier associated with the tissue storage compartment, and a rotational center of the tissue storage compartment.

19 . The specimen imaging apparatus of claim 1 , wherein the image processor is further configured to detect a lesion, a calcification, or an object of interest within the x-ray image that is not visible within the optical image.

20 . A specimen imaging apparatus, comprising:

a tissue holder assembly defining a tissue storage compartment for a severed tissue specimen;

an x-ray imaging system arranged relative to the tissue storage compartment to acquire an x-ray image of the severed tissue specimen in the tissue storage compartment;

an optical camera imaging system arranged relative to the tissue storage compartment to acquire an optical image of the severed tissue specimen in the tissue storage compartment, wherein the optical image includes an edge of the severed tissue specimen;

an image processor in communication with the x-ray imaging system and the optical camera imaging system, the image processor being configured to receive the x-ray image and the optical image, and generate a hybrid image based at least in part upon the x-ray image and the optical image, and the edge of the severed tissue specimen depicted in the optical image, wherein the image processor being further configured to generate the hybrid image based on the x-ray image being overlaid with the optical image and determined portions of the optical image being semi-transparent so that underlying portions of the x-ray image are at least partially visible through the determined portions of the optical image, wherein a first transparency of a first portion of the optical image depicting the edge of the severed tissue specimen is greater than a second transparency of a second portion of the optical image depicting an interior or middle portion of the severed tissue specimen; and

a display in communication with the image processor, the hybrid image being presented to a user of the specimen imaging apparatus through the display.

21 . A specimen imaging apparatus, comprising:

a tissue holder assembly defining a tissue storage compartment for a severed tissue specimen, wherein the tissue storage compartment is a first tissue storage compartment and the severed tissue specimen is a first severed tissue specimen;

an x-ray imaging system arranged relative to the tissue storage compartment to acquire an x-ray image of the severed tissue specimen in the tissue storage compartment, the x-ray image includes the first severed tissue specimen deposited in the first tissue storage compartment;

an optical camera imaging system arranged relative to the tissue storage compartment to acquire an optical image of the severed tissue specimen in the tissue storage compartment, wherein the optical image includes an edge of the severed tissue specimen, and the optical image includes a plurality of severed tissue specimens including the first severed tissue specimen deposited into a plurality of respective tissue storage compartments including the first tissue storge component;

an image processor in communication with the x-ray imaging system and the optical camera imaging system, the image processor being configured to receive the x-ray image and the optical image, and generate a hybrid image based at least in part upon the x-ray image and the optical image, and the edge of the severed tissue specimen depicted in the optical image, and wherein the image processor being further configured to:

identify a portion of the optical image that corresponds to the first severed tissue specimen deposited in the first tissue storage compartment depicted in the x-ray image;

crop the identified portion of the optical image; and

register the x-ray image and the cropped portion of the optical image with reference to a component of the tissue storage compartment, wherein the hybrid image is generated based at least in part upon the registered x-ray and the cropped portion of the optical image; and

a display in communication with the image processor, the hybrid image being presented to a user of the specimen imaging apparatus through the display.

Assignments (4)
RELEASE OF SECURITY INTEREST RECORDED AT REEL/FRAME 069172/0436 Recorded Apr 28, 2026
From: BANK OF AMERICA, N.A., AS COLLATERAL AGENT
To: HOLOGIC, INC.; GEN-PROBE INCORPORATED; FAXITRON BIOPTICS, LLC
Reel/Frame 075503/0086 →
SECURITY INTEREST Recorded Apr 8, 2026
From: BIOTHERANOSTICS, INC.; GEN-PROBE INCORPORATED; GEN-PROBE PRODESSE, INC.; CYTYC CORPORATION; SUROS SURGICAL SYSTEMS, INC.; GYNESONICS, INC.; BOLDER SURGICAL, LLC; FAXITRON BIOPTICS, LLC; HEALTH BEACONS, INC.; HOLOGIC, INC.
To: ROYAL BANK OF CANADA, AS COLLATERAL AGENT
Reel/Frame 075462/0440 →
SECURITY INTEREST Recorded Oct 14, 2024
From: HOLOGIC, INC.; GEN-PROBE INCORPORATED; FAXITRON BIOPTICS, LLC
To: BANK OF AMERICA, N.A., AS COLLATERAL AGENT
Reel/Frame 069172/0436 →
ASSIGNMENT OF ASSIGNOR'S INTEREST Recorded Apr 30, 2024
From: CHEN, BIAO
To: HOLOGIC, INC.
Reel/Frame 067264/0109 →
Continuity (3)
Continuation 17417642
Provisional Application 62784935 · Dec 26, 2018
Related Publication 20240315676A1 · Sep 26, 2024
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