Prosecution Insights
Last updated: May 29, 2026
Application No. 18/816,090

TOUCH COMPONENT, TOUCH CHIP, AND TERMINAL DEVICE

Non-Final OA §103
Filed
Aug 27, 2024
Priority
Feb 28, 2022 — CN 202210191356.2 +1 more
Examiner
ABEBE, SOSINA
Art Unit
2626
Tech Center
2600 — Communications
Assignee
Huawei Technologies Co., Ltd.
OA Round
2 (Non-Final)
73%
Grant Probability
Favorable
2-3
OA Rounds
1y 2m
Est. Remaining
91%
With Interview

Examiner Intelligence

Grants 73% — above average
73%
Career Allowance Rate
333 granted / 458 resolved
+10.7% vs TC avg
Strong +19% interview lift
Without
With
+18.6%
Interview Lift
resolved cases with interview
Typical timeline
2y 12m
Avg Prosecution
11 currently pending
Career history
474
Total Applications
across all art units

Statute-Specific Performance

§101
0.2%
-39.8% vs TC avg
§103
90.0%
+50.0% vs TC avg
§102
7.0%
-33.0% vs TC avg
§112
1.1%
-38.9% vs TC avg
Black line = Tech Center average estimate • Based on career data from 458 resolved cases

Office Action

§103
DETAILED ACTION This FINAL action in response to Application No. 18/816,090 originally filed on 08/27/2024. The amendment presented on 09/17/2025 in which provides claims 1 and 5 - 8 are currently amended, claim 2 is currently canceled and claims 10 - 13 are currently add is hereby acknowledged. Claims 1 and 3 - 13 are pending. Notice of Pre-AIA or AIA Status The present application, filed on or after March 16, 2013, is being examined under the first inventor to file provisions of the AIA . Response to Amendments This is in response to applicant’s communication filed on 17 September 2025, wherein: claims 1 and 3 - 13 are pending. Claims 1 and 5 - 8 have been amended. Claim 2 has been cancelled. Claims 10 - 13 have been added. Response to Arguments Applicant’s arguments filed on September 17, 2025 with respect to the rejections of claims 1 and 3 - 13 have been fully considered but are not persuasive. Claims 1 and 3 - 13 are a new ground of rejection necessitated by amendment. The applicant respectfully submits that Lin does not teach or suggest “ respective detection pads of the plurality of detection pads of the first touch circuit and respective detection pads of the plurality of detection pads of the second touch circuit are independently electrically connected to respectively different groups of detection pins of the touch chip, and respective drive pads of the plurality of drive pads of the first touch circuit and respective drive pads of the plurality of drive pads of the second touch circuit are independently electrically connected to respectively different groups of drive pins of the touch chip;” as recited in claim 1. The Examiner respectfully disagrees with the applicant’s argument because: Han teaches respective detection pads of the plurality of detection pads (fig. 9; touch areas FTA1) of the first touch circuit (fig. 9; FRx11 to FRx1a (GPb-FRx1)) and respective detection pads (fig. 9; touch areas FTA1) of the plurality of detection pads (fig. 9; touch areas FTA2) of the second touch circuit (fig. 9; FRx21 to FRx2a(GPb-FRx2)) are independently electrically connected to respectively different groups of detection pins (fig. 9; IB2 (13-16, 19 and 110-112)) of the touch chip, (fig. 9; touch IC 20) and respective drive pads of the plurality of drive pads (fig. 9; GPb-FTx) of the first touch circuit (fig. 9; FRx11 to FRx1a (GPb-FRx1)) and respective drive pads of the plurality of drive pads (fig. 9; GPb-FTx) of the second touch circuit (fig. 9; FRx21 to FRx2a(GPb-FRx2)) are independently electrically connected to respectively different groups of drive pins (fig. 9; IB12 (117 & 118)) of the touch chip (fig. 9; touch IC 20); (see annotated fig. 9 below) Applicant further argues that Han does not teach or suggest “respective groups of the first plurality of groups of drive pins are configured to be electrically connected to respectively different drive pads of a plurality of drive pads of a first touch circuit of a touchscreen, respective groups of the first plurality of groups of detection pins are configured to be electrically connected to respectively different detection pads of a plurality of detection pads of the first touch circuit, respective groups of the second plurality of groups of drive pins are configured to be electrically connected to respectively different drive pads of a plurality of drive pads of a second touch circuit of the touchscreen, and respective groups of the second plurality of groups of detection pins are configured to be electrically connected to respectively different detection pads of a plurality of detection pads of the second touch circuit,” As recited in claim 7. The Examiner respectfully disagrees with the applicant’s argument because: Han teaches respective groups of the first plurality of groups of drive pins (fig. 9; IB12 (17 & 18)) are configured to be electrically connected to respectively different drive pads of a plurality of drive pads (fig. 9; GPb-FTx) of a first touch circuit (fig. 9; FRx11 to FRx1a (GPb-FRx1)) of a touchscreen, respective groups of the first plurality of groups of detection pins (fig. 9; IB2 (13-16, 19 and 110-112)) are configured to be electrically connected to respectively different detection pads of a plurality of detection pads (fig. 9; touch areas FTA1) of the first touch circuit, (fig. 9; FRx11 to FRx1a (GPb-FRx1)) respective groups of the second plurality of groups of drive pins (fig. 9; IB12 (117 & 118)) are configured to be electrically connected to respectively different drive pads (fig. 9; GPb-FTx) of a plurality of drive pads of a second touch circuit (fig. 9; FRx21 to FRx2a(GPb-FRx2)) of the touchscreen, and respective groups of the second plurality of groups of detection pins (fig. 9; IB2 (113-116 and 119-122)) are configured to be electrically connected to respectively different detection pads of a plurality of detection pads (fig. 9; GPb-FTx) of the second touch circuit (fig. 9; FRx21 to FRx2a(GPb-FRx2)), (fig. 9 and [0090] - [0093]) Claim Objection Claim 7 is objected to because of the following informalities: claim 7; line 14 “the first circuit” it should be “the first touch circuit”. Appropriate correction is required. Claim Rejections - 35 USC § 103 In the event the determination of the status of the application as subject to AIA 35 U.S.C. 102 and 103 (or as subject to pre-AIA 35 U.S.C. 102 and 103) is incorrect, any correction of the statutory basis for the rejection will not be considered a new ground of rejection if the prior art relied upon, and the rationale supporting the rejection, would be the same under either status. 8. The following is a quotation of 35 U.S.C. 103 which forms the basis for all obviousness rejections set forth in this Office action: A patent for a claimed invention may not be obtained, notwithstanding that the claimed invention is not identically disclosed as set forth in section 102 of this title, if the differences between the claimed invention and the prior art are such that the claimed invention as a whole would have been obvious before the effective filing date of the claimed invention to a person having ordinary skill in the art to which the claimed invention pertains. Patentability shall not be negated by the manner in which the invention was made. 9. The factual inquiries for establishing a background for determining obviousness under 35 U.S.C. 103 are summarized as follows: 1. Determining the scope and contents of the prior art. 2. Ascertaining the differences between the prior art and the claims at issue. 3. Resolving the level of ordinary skill in the pertinent art. 4. Considering objective evidence present in the application indicating obviousness or nonobviousness. 10. Claims 1 and 3 - 13 are rejected under 35 U.S.C. 103 as being unpatentable over Han “US 2018/0113346” in view of Lin “CN 112764590”. Re-claim 1, Han teaches a touch component, (fig. 9) comprising a touchscreen and a touch chip, (fig. 9; touch IC 20) wherein the touchscreen comprises a display panel, a first touch circuit, (fig. 9; FRx11 to FRx1a (GPb-FRx1)) and a second touch circuit, (fig. 9; FRx21 to FRx2a(GPb-FRx2)) the first touch circuit (fig. 9; FRx11 to FRx1a (GPb-FRx1)) is located in a first touch zone (left touch area FTA1) of the display panel, the second touch circuit (fig. 9; FRx21 to FRx2a(GPb-FRx2)) is located in a second touch zone (right touch area FTA2) of the display panel, the first touch circuit (fig. 9; FRx11 to FRx1a (GPb-FRx1)) comprises a plurality of drive pads (fig. 9; GPb-FTx) and a plurality of detection pads, (fig. 9; touch areas FTA1) and the second touch circuit (fig. 9; FRx21 to FRx2a(GPb-FRx2)) comprises a plurality of drive pads (fig. 9; GPb-FTx) and a plurality of detection pads, (fig. 9; touch areas FTA2) respective detection pads of the plurality of detection pads (fig. 9; touch areas FTA1) of the first touch circuit (fig. 9; FRx11 to FRx1a (GPb-FRx1)) and respective detection pads (fig. 9; touch areas FTA1) of the plurality of detection pads (fig. 9; touch areas FTA2) of the second touch circuit (fig. 9; FRx21 to FRx2a(GPb-FRx2)) are independently electrically connected to respectively different groups of detection pins (fig. 9; IB2 (13-16, 19 and 110-112)) of the touch chip, (fig. 9; touch IC 20) and respective drive pads of the plurality of drive pads (fig. 9; GPb-FTx) of the first touch circuit (fig. 9; FRx11 to FRx1a (GPb-FRx1)) and respective drive pads of the plurality of drive pads (fig. 9; GPb-FTx) of the second touch circuit (fig. 9; FRx21 to FRx2a(GPb-FRx2)) are independently electrically connected to respectively different groups of drive pins (fig. 9; IB12 (117 & 118)) of the touch chip (fig. 9; touch IC 20); (fig. 9 and [0090] - [0093]) (see annotated fig. 9 below) the touch chip (fig. 9; touch IC 20) is configured to: output drive signals to the plurality of drive pads (fig. 9; GPb-FTx) of the first touch circuit (fig. 9; FRx11 to FRx1a (GPb-FRx1)) respectively, and receive first detection signals from the plurality of detection pads (fig. 9; touch areas FTA1) of the first touch circuit (fig. 9; FRx11 to FRx1a (GPb-FRx1)) respectively, wherein the first detection signal is used to detect a touch operation in the first touch zone; (par. [0024]) the touch chip (fig. 9; touch IC 20) is further configured to: output drive signals to the plurality of drive pads (fig. 9; GPb-FTx) of the second touch circuit, (fig. 9; FRx21 to FRx2a(GPb-FRx2)) and receive second detection signals from the plurality of detection pads (fig. 9; touch areas FTA2) of the second touch circuit, (fig. 9; FRx21 to FRx2a(GPb-FRx2)) wherein the second detection signal is used to detect a touch operation in the second touch zone. (par. [0025]) Han does not explicitly teach wherein the touchscreen is a foldable screen that is folded along a folding line, and the first touch zone and the second touch zone are located on two sides of the folding line; However, Lin teaches wherein the touchscreen is a foldable screen (e.g. fig. 1) that is folded along a folding line, (see fig. 1) and the first touch zone (fig. 1 and fig. 2; 10) and the second touch zone (fig. 1 and fig. 2; 20) are located on two sides of the folding line; (as shown in fig. 1) (par. [0055] the touch display panel is a foldable display panel, the first touch area 10 corresponding to the first display area, the second touch area 20 corresponding to the second display area, the first display area may be a main display area, the second display area may be a secondary display area) It would have been obvious to one of ordinary skill in the art before the effective filing data to modify the invention of Han with the teaching of Lin to realize one driver chip controlling the two touch areas to achieve the touch function of the two touch areas, thereby reducing the number of the driver chips helping to reduce product costs. (Lin, par. [0091]) PNG media_image1.png 924 878 media_image1.png Greyscale Re-claim 3, Han teaches wherein the plurality of detection pads (fig. 9; touch areas FTA1) of the first touch circuit (fig. 9; FRx11 to FRx1a (GPb-FRx1)) are electrically isolated from the plurality of detection pads (fig. 9; touch areas FTA2) of the second touch circuit. (fig. 9; FRx21 to FRx2a(GPb-FRx2)) Re-claim 4, Han teaches wherein the plurality of drive pads (fig. 9; touch areas FTA1) of the first touch circuit (fig. 9; FRx11 to FRx1a (GPb-FRx1)) are electrically isolated from the plurality of drive pads (fig. 9; touch areas FTA2) of the second touch circuit. (fig. 9; FRx21 to FRx2a(GPb-FRx2)) Re-claim 5, Han teaches wherein the touch chip (fig. 9; touch IC 20) comprises a first plurality of groups of drive pins, (fig. 9; IB12 (17 & 18)) a second plurality of groups of drive pins, (fig. 9; IB12 (117 & 118)) a first plurality of groups of detection pins, (fig. 9; IB2 (13-16, 19 and 110-112)) a second plurality of groups of detection pins, (fig. 9; IB2 (113-116 and 119-122)) a control circuit, (fig. 9; DSU) and a plurality of analog front end circuits; (fig. 9; ADC2) the first plurality of groups of drive pins (fig. 9; IB12 (17 & 18)) are electrically connected to the plurality of drive pads (fig. 9; GPb-FTx) of the first touch circuit, (fig. 9; FRx11 to FRx1a (GPb-FRx1)) the first plurality of groups of detection pins (fig. 9; IB2 (13-16, 19 and 110-112)) are electrically connected to the plurality of detection pads (fig. 9; touch areas FTA1) of the first touch circuit, (fig. 9; FRx11 to FRx1a (GPb-FRx1)) the second plurality of groups of drive pins (fig. 9; IB12 (117 & 118)) are electrically connected to the plurality of drive pads (fig. 9; GPb-FTx) of the second touch circuit, (fig. 9; FRx21 to FRx2a(GPb-FRx2)) and the second plurality of groups of detection pins (fig. 9; IB2 (113-116 and 119-122)) are electrically connected to the plurality of detection pads (fig. 9; touch areas FTA2) of the second touch circuit; (fig. 9; FRx21 to FRx2a(GPb-FRx2)) the control circuit (fig. 9; DSU) is configured to: output the drive signals to the plurality of drive pads (fig. 9; GPb-FTx) of the first touch circuit (fig. 9; FRx11 to FRx1a (GPb-FRx1)) by using the first plurality of groups of drive pins, (fig. 9; IB12 (17 & 18)) and receive the first detection signals from the plurality of detection pads (fig. 9; touch areas FTA1) of the first touch circuit (fig. 9; FRx11 to FRx1a (GPb-FRx1)) by using the first plurality of groups of detection pins; (fig. 9; IB2 (13-16, 19 and 110-112)) the control circuit (fig. 9; DSU) is further configured to: output the drive signals to the plurality of drive pads (fig. 9; GPb-FTx) of the second touch circuit (fig. 9; FRx21 to FRx2a(GPb-FRx2)) by using the second plurality of groups of drive pins, (fig. 9; IB12 (117 & 118)) and receive the second detection signals from the plurality of detection pads (fig. 9; touch areas FTA2) of the second touch circuit (fig. 9; FRx21 to FRx2a(GPb-FRx2)) by using the second plurality of groups of detection pins; (fig. 9; IB2 (113-116 and 119-122)) and the plurality of analog front end circuits (fig. 9; ADC2) are configured to perform analog-to-digital conversion (fig. 9; ADC12) on the first detection signals and/or the second detection signals. (pars. [0101] - [0103]) Re-claim 6, Han in view of Lin teaches all the limitations of claim 5, Lin teaches wherein the touch chip (fig. 9) further comprises a plurality of selection switches, (fig. 2; S1 & S2) and the control circuit is further configured to: control the plurality of selection switches (fig. 2; S1 & S2) to select the first plurality of groups of detection pins (fig. 2; 201) or the second plurality of groups of detection pins (fig. 2; 202) to be electrically connected to input ends of the plurality of analog front end circuits. (pars. [0058] and [0065] - [0067]) Re-claim 7, Han teaches a touch chip, (fig. 9; touch IC 20) comprising a first plurality of groups of drive pins, (fig. 9; IB12 (17 & 18)) a second plurality of groups of drive pins, (fig. 9; IB12 (117 & 118)) a first plurality of groups of detection pins, (fig. 9; IB2 (13-16, 19 and 110-112)) a second plurality of groups of detection pins, (fig. 9; IB2 (113-116 and 119-122)) a control circuit, (fig. 9; DSU) and a plurality of analog front end circuits; (fig. 9; ADC2) wherein respective groups of the first plurality of groups of drive pins (fig. 9; IB12 (17 & 18)) are configured to be electrically connected to respectively different drive pads of a plurality of drive pads (fig. 9; GPb-FTx) of a first touch circuit (fig. 9; FRx11 to FRx1a (GPb-FRx1)) of a touchscreen, respective groups of the first plurality of groups of detection pins (fig. 9; IB2 (13-16, 19 and 110-112)) are configured to be electrically connected to respectively different detection pads of a plurality of detection pads (fig. 9; touch areas FTA1) of the first touch circuit, (fig. 9; FRx11 to FRx1a (GPb-FRx1)) respective groups of the second plurality of groups of drive pins (fig. 9; IB12 (117 & 118)) are configured to be electrically connected to respectively different drive pads (fig. 9; GPb-FTx) of a plurality of drive pads of a second touch circuit (fig. 9; FRx21 to FRx2a(GPb-FRx2)) of the touchscreen, and respective groups of the second plurality of groups of detection pins (fig. 9; IB2 (113-116 and 119-122)) are configured to be electrically connected to respectively different detection pads of a plurality of detection pads (fig. 9; GPb-FTx) of the second touch circuit (fig. 9; FRx21 to FRx2a(GPb-FRx2)), (fig. 9 and [0090] - [0093]) (see annotated fig. 9 above) the control circuit (fig. 9; DSU) is configured to: output the drive signals to the plurality of drive pads (fig. 9; GPb-FTx) of the first touch circuit (fig. 9; FRx11 to FRx1a (GPb-FRx1)) by using the first plurality of groups of drive pins, (fig. 9; IB12 (17 & 18)) and receive the first detection signals from the plurality of detection pads (fig. 9; touch areas FTA1) of the first touch circuit (fig. 9; FRx11 to FRx1a (GPb-FRx1)) by using the first plurality of groups of detection pins (fig. 9; IB2 (13-16, 19 and 110-112)); (par. [0024]) the control circuit (fig. 9; DSU) is further configured to: output the drive signals to the plurality of drive pads (fig. 9; GPb-FTx) of the second touch circuit (fig. 9; FRx21 to FRx2a(GPb-FRx2)) by using the second plurality of groups of drive pins, (fig. 9; IB12 (117 & 118)) and receive the second detection signals from the plurality of detection pads (fig. 9; touch areas FTA2) of the second touch circuit (fig. 9; FRx21 to FRx2a(GPb-FRx2)) by using the second plurality of groups of detection pins (fig. 9; IB2 (113-116 and 119-122)); (par. [0025]) and the plurality of analog front end circuits (fig. 9; ADC2) are configured to perform analog-to-digital conversion (fig. 9; ADC12) on the first detection signals and/or the second detection signals. (pars. [0101] - [0103]) Han does not explicitly teach wherein the touchscreen is a foldable screen that is folded along a folding line, and the first circuit and the second touch circuit are located on two sides of the folding line; However, Lin teaches wherein the touchscreen is a foldable screen (e.g. fig. 1) that is folded along a folding line, (see fig. 1) and the first circuit (fig. 1 and fig. 2; 10) and the second touch circuit (fig. 1 and fig. 2; 20) are located on two sides of the folding line; (as shown in fig. 1) (par. [0055] the touch display panel is a foldable display panel, the first touch area 10 corresponding to the first display area, the second touch area 20 corresponding to the second display area, the first display area may be a main display area, the second display area may be a secondary display area) It would have been obvious to one of ordinary skill in the art before the effective filing data to modify the invention of Han with the teaching of Lin to realize one driver chip controlling the two touch areas to achieve the touch function of the two touch areas, thereby reducing the number of the driver chips helping to reduce product costs. (Lin, par. [0091]) Re-claim 8, Han in view of Lin teaches all the limitations of claim 7, Lin teaches wherein the touch chip (fig. 9) further comprises a plurality of selection switches, (fig. 2; S1 & S2) and the control circuit is configured to: control the plurality of selection switches (fig. 2; S1 & S2) to select the first plurality of groups of detection pins (fig. 2; 201) or the second plurality of groups of detection pins (fig. 2; 202) to be electrically connected to input ends of the plurality of analog front end circuits. (pars. [0058] and [0065] - [0067]) Re-claim 9, Han in view of Lin teaches all the limitations of claim 1, Lin teaches a terminal device, comprising the touch component (par. [0002] the touch display device is more and more diversified, mobile phone, flat and other electronic products are towards the large screen, curved screen and multi-screen display) according to claim 1. (See the rejection claim 1 above) Re-claim 10, Han in view of Lin teaches all the limitations of claim 9, Han teaches wherein the plurality of detection pads (fig. 9; touch areas FTA2) of the first touch circuit (fig. 9; FRx11 to FRx1a (GPb-FRx1)) are electrically isolated from the plurality of detection pads (fig. 9; touch areas FTA2) of the second touch circuit. (fig. 9; FRx21 to FRx2a(GPb-FRx2)) Re-claim 11, Han in view of Lin teaches all the limitations of claim 9, Han teaches wherein the plurality of drive pads (fig. 9; touch areas FTA1) of the first touch circuit (fig. 9; FRx11 to FRx1a (GPb-FRx1)) are electrically isolated from the plurality of drive pads (fig. 9; touch areas FTA2) of the second touch circuit. (fig. 9; FRx21 to FRx2a(GPb-FRx2)) Re-claim 12, Han teaches the control circuit (figs. 5 & 9; DSU) is further configured to: output drive signals to each respective drive pad of the plurality of drive pads (fig. 9; GPb-FTx) of the first touch circuit (fig. 9; FRx11 to FRx1a (GPb-FRx1)) by using a respectively different group of the first plurality of groups of drive pins, (fig. 9; IB12 (17 & 18)) and receive first detection signals from each detection pad of the plurality of detection pads (fig. 9; GPb-FTx) of the first touch circuit (fig. 9; FRx11 to FRx1a (GPb-FRx1)) by using a respectively different group of the first plurality of groups of detection pins; (fig. 9; IB2 (13-16, 19 and 110-112)) and output drive signals to each drive pad of the plurality of drive pads (fig. 9; GPb-FTx) of the second touch circuit (fig. 9; FRx21 to FRx2a(GPb-FRx2)) by using a respectively different group of the second plurality of groups of drive pins, (fig. 9; IB12 (117 & 118)) and receive second detection signals from each detection pad of the plurality of detection pads (fig. 9; touch areas FTA2) of the second touch circuit (fig. 9; FRx21 to FRx2a(GPb-FRx2)) by using a respectively different group of the second plurality of groups of detection pins. (fig. 9; IB2 (113-116 and 119-122)) Re-claim 13, Han teaches the control circuit (figs. 5 & 9; DSU) is further configured to: output the drive signals to respective drive pads of the plurality of drive pads (fig. 9; The fingerprint sensing unit FSU of the touch IC 20) of the first touch circuit (fig. 9; FRx11 to FRx1a (GPb-FRx1)) by using the first plurality of groups of drive pins, (fig. 9; IB12 (17 & 18)) and receive the first detection signals from the plurality of detection pads (fig. 9; The fingerprint sensing unit FSU of the touch IC 20) of the first touch circuit (fig. 9; FRx11 to FRx1a (GPb-FRx1)) by using the first plurality of groups of detection pins; (fig. 9; IB2 (13-16, 19 and 110-112)) and output the drive signals to the plurality of drive pads of the second touch circuit (fig. 9; FRx21 to FRx2a(GPb-FRx2)) by using the second plurality of groups of drive pins, (fig. 9; IB12 (117 & 118)) and receive the second detection signals from the plurality of detection pads (fig. 9; touch areas FTA2) of the second touch circuit (fig. 9; FRx21 to FRx2a(GPb-FRx2)) by using the second plurality of groups of detection pins. (fig. 9; IB2 (113-116, 119 and 120-122)) Conclusion 11. Applicant's amendment necessitated the new ground(s) of rejection presented in this Office action. Accordingly, THIS ACTION IS MADE FINAL. See MPEP § 706.07(a). Applicant is reminded of the extension of time policy as set forth in 37 CFR 1.136(a). A shortened statutory period for reply to this final action is set to expire THREE MONTHS from the mailing date of this action. In the event a first reply is filed within TWO MONTHS of the mailing date of this final action and the advisory action is not Application/Control Number: 14/953,981 Page 12 Art Unit: 2626 mailed until after the end of the THREE-MONTH shortened statutory period, then the shortened statutory period will expire on the date the advisory action is mailed, and any extension fee pursuant to 37 CFR 1.136(a) will be calculated from the mailing date of the advisory action. In no event, however, will the statutory period for reply expire later than SIX MONTHS from the date of this final action. Contact Information 12. Any inquiry concerning this communication or earlier communications from the examiner should be directed to Sosina Abebe whose telephone number is (571) 270-7929. The examiner can normally be reached on Mon-Friday from 9:00-5:30 If attempts to reach the examiner by telephone are unsuccessful, the examiner's Supervisor, Temesghen Ghebretinsae can be reached on (571) 272-3017. The fax phone number for the organization where this application or proceeding is assigned is 703-872-9306. Information regarding the status of an application may be obtained from the Patent Application Information Retrieval (PAIR) system. Status information for published applications may be obtained from either Private PAIR or Public PAIR. Status information for unpublished applications is available through Private PAIR only. For more information about the PAIR system, see http://pair-direct.uspto.gov. Should you have questions on access to the Private PAIR system, contact the Electronic Business Center (EBC) at 866-217-9197 (toll-free). /S.A/Examiner, Art Unit 2626 /TEMESGHEN GHEBRETINSAE/Supervisory Patent Examiner, Art Unit 2626 12/18/2025
Read full office action

Prosecution Timeline

Aug 27, 2024
Application Filed
Jun 18, 2025
Non-Final Rejection mailed — §103
Sep 17, 2025
Response Filed
Dec 22, 2025
Final Rejection mailed — §103
Mar 20, 2026
Response after Non-Final Action
May 22, 2026
Notice of Allowance
May 22, 2026
Response after Non-Final Action

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Prosecution Projections

2-3
Expected OA Rounds
73%
Grant Probability
91%
With Interview (+18.6%)
2y 12m (~1y 2m remaining)
Median Time to Grant
Moderate
PTA Risk
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