Office Action Analysis — App 19539854 (public record)
Full Analysis

Office Action Response Analysis · Non-Final (CTNF)

App. No. 19/539,854

Art Unit
1721
Examiner
MAYLA GONZALEZ RAMOS
Mailed
06/24/2026
Response period stated in the OA
“3 MONTHS FROM THE MAILING DATE OF THIS COMMUNICATION”
Rejections
§112(b) ×2§102 ×2§103 ×2
Claims
14 rejected · 1 objected · 4 withdrawn
Generated
Aug 24, 2026

The two fully-grounded YAKUSHIJI §102 distinctions (Arguments 1 and 2) are the record-anchored core, but each has an argue-side exposure the examiner can cure by supplying material outside the applicant's truncated excerpt (Fig. 1/para. 0015 for the magnetization orientation; para. 0018 plus a possible conditional-claim reading for the magnetic-force limitation), so counsel may wish to verify those passages before committing to a purely argument-based response. Several remaining candidates (Arguments 3 and 4, and the adhesiveness/Kerkhoven portions of 4 and 5) rest on reference passages the applicant has not yet seen and should be treated as verify-first rather than pressed as definitive distinctions. For the §112(b) issue (Argument 6) the compact-prosecution framing is doctrinally correct and should be preserved, and counsel may weigh a clarifying amendment as the cleaner route than litigating competing constructions — considerations for counsel to weigh in setting the overall argue-versus-amend balance.

Generated on a published USPTO office action — no confidential disclosure involved. First-pass analysis for attorney review — not a drafted response.

1.

Per-Claim Strategy

An at-a-glance recommendation per rejected claim, composed deterministically from the analysis below. A triage summary for counsel to weigh, not a decision.

ClaimRejectionsRecommended pathBasisFallback amendmentConfidence
Claim 1§112(b) (indefiniteness)§102 (anticipation)ArgueDefiniteness rebuttal (#1)high
Claims 2, 4§112(b) (indefiniteness)§102 (anticipation)ArgueMissing element (#2)moderate
Claim 6§112(b) (indefiniteness)§102 (anticipation)ArgueMissing element (#2)high
Claim 7§112(b) (indefiniteness)§102 (anticipation)ArgueMissing element (#2)moderate
Claim 8§112(b) (indefiniteness)§103 (obviousness)ArgueMissing element (#2)moderate
Claim 9Other§112(b) (indefiniteness)§103 (obviousness)ArgueMissing element (#2)moderate
Claims 10, 11§112(b) (indefiniteness)§103 (obviousness)ArgueMissing element (#2)moderate
Claim 12§112(b) (indefiniteness)Review — no argument identifiedStrategy check: re-ranked — The bank maps no argument to claim 12; the definiteness-resolution concept (currently Rank 6, listed only for claim 1) is the operative and only path for claim 12's derivative §112b rejection and should be recognized as its top argument.low
Claim 13§112(b) (indefiniteness)Review — no argument identifiedStrategy check: re-ranked — No bank argument is mapped to claim 13; the claim-1 definiteness resolution (Rank 6) is the sole relevant lever for this derivative §112b rejection and is currently unmapped to this claim.low
Claim 14§112(b) (indefiniteness)§102 (anticipation)ArgueMischaracterized reference (#6)moderate
Claim 16§112(b) (indefiniteness)§102 (anticipation)ArgueMischaracterized reference (#6)low
Claims 18, 19§112(b) (indefiniteness)ArgueDefiniteness rebuttal (#8)moderate
2.

Argument Bank

Candidate arguments for counsel, ranked strongest-first — brainstorming inputs for counsel to evaluate, not a drafted response.

1

Claim 1 indefiniteness is resolvable under BRI / by clarifying amendment concept

Definiteness rebuttalClaim 1Rebuts: §112(b) rejection of claims 1, 2, 4, 6, 7, 8, 9, 10, 11, 12, 13

Strategy check: re-ranked from #3 — The bank maps no argument to claim 12; the definiteness-resolution concept (currently Rank 6, listed only for claim 1) is the operative and only path for claim 12's derivative §112b rejection and should be recognized as its top argument.

the insulation region that electrically insulates the thermoelectric material layer ... and the electrode region that electrically connects the thermoelectric material layer

The examiner reads the phrase as grammatically incomplete, suggesting the word "that" should be removed so that the insulation region electrically insulates and the electrode region electrically connects the two thermoelectric material layers, and questions what "the surface opposite" refers to. For counsel to weigh: under the broadest reasonable interpretation a PHOSITA reads the isolation layer as having an insulation region performing the insulating function and an electrode region performing the connecting function, and "the surface opposite" as the isolation-layer face directed away from the thermoelectric material layer — a scope the examiner's own § 102 mapping treated as ascertainable when applying YAKUSHIJI. Because the examiner nonetheless applied prior art to the claim, the simultaneous § 112(b) and § 102 posture is proper compact prosecution and should not be attacked as inconsistent; the correct lever is to confirm the construction or adopt the clarifying amendment concept the examiner identified. Counsel should assess whether a clarifying amendment removing the redundant "that" and anchoring the 'opposite surface' antecedent is the cleaner path.

  • Office action: "It seems the word 'that' between 'the insulation region' and 'electrically insulates' should be removed."
  • Office action: "It is not clear on what constitutes 'the surface opposite to the surface on which the thermoelectric material layer is stacked.'"
MPEP § 2173.02 / In re Packard — examination definiteness standard (BRI); MPEP § 2173.06(II) — simultaneous § 112(b) and § 102 rejection is proper compact prosecution

Risk The examiner may maintain that the grammatical gap leaves the claim amenable to more than one construction under Ex parte Miyazaki; a clarifying amendment likely resolves it more cleanly than argument. Do not argue the § 112(b) and § 102 pairing is inconsistent — that is a known losing position.

Likely examiner response survives — moderate

The examiner can maintain the §112(b) rejection under the Ex parte Miyazaki prong (MPEP § 2173.02): the grammatical incompleteness of the 'that' clause and the unclear antecedent of 'the surface opposite' make the claim amenable to MORE THAN ONE plausible construction under BRI. Offering ONE reasonable reading does not defeat indefiniteness where the examiner's alternative reading is also plausible — the existence of competing plausible constructions is itself the defect. The examiner having applied YAKUSHIJI under a reasonable interpretation is proper compact prosecution (MPEP § 2173.06(II)) and does not concede that the scope is definite.

How to adjust This argument correctly AVOIDS the losing 'inconsistent pairing' path and correctly cites compact prosecution — that is a strength; keep it framed that way. But arguing a single BRI reading may not overcome the Miyazaki plural-construction prong. The cleaner, likely-dispositive lever the argument itself flags is the clarifying amendment concept (removing the redundant 'that' and anchoring the 'opposite surface' antecedent). Counsel should weigh amend-first here to resolve §112(b) definitively rather than litigating which construction controls.

2

YAKUSHIJI's magnetization lies in-plane, not perpendicular to the surfaces

Missing elementClaim 1Claim 2Claim 4Claim 6Claim 7Claim 8Claim 9Claim 10Claim 11

the thermoelectric material layer has a magnetization component perpendicular to the first surface and the second surface

YAKUSHIJI is the sole reference for the § 102 rejection of claims 1, 2, 4, 6 and 7 and is fully grounded. Its retrieved abstract and claim 1 affirmatively describe magnetization lying in the plane of the plate-shaped thermoelectric body, with the connection terminals set at the ends along a direction perpendicular to that in-plane magnetization, and with the electrode plate/isolation layer contacting the body's main surface — so the magnetization runs parallel to, not perpendicular to, the surfaces on which the isolation layer sits (analysis). The examiner's contrary reading that "magnetization M is in the y direction" and is therefore perpendicular rests on Fig. 1 and para. 0015, which lie outside the available grounded excerpt, so the perpendicular finding is not supported by the retrieved text. Because a single absent limitation defeats anticipation, counsel may weigh whether this gap is dispositive of the § 102 rejection and, since claims 8-11 build on claim 1, whether it also undercuts the base of the § 103 rejections. Counsel should confirm the actual plate orientation and stacking direction shown in Fig. 1 before fully relying on this distinction.

  • YAKUSHIJI abstract: "connecting terminals at both ends in a first direction perpendicular to the direction of magnetization in the plane thereof"
  • Office action: "the thermoelectric material layer (11₁) has a magnetization component perpendicular to the first surface and the second surface (magnetization M is in the y direction) [Fig. 1 and para. 0015]"
  • OA3 claim chart: grounded abstract/claim 1 "describe magnetization lying IN THE PLANE of the plate-shaped body"
MPEP § 2131 — anticipation requires every claimed limitation, expressly or inherently, arranged as in the claim; a single missing element defeats § 102

Risk The examiner will point to Fig. 1 geometry and para. 0015 (unseen) to argue the plates are laminated such that the in-plane 'y' magnetization is perpendicular to the main surfaces; counsel should verify the actual plate/stacking orientation in Fig. 1 before relying. Prosecution-history caution: emphasizing that the invention requires a magnetization component normal to the isolation-layer surfaces further fixes that geometry in the file wrapper and may narrow scope against later equivalents.

Likely examiner response survives — moderate

The examiner has the COMPLETE YAKUSHIJI reference, including Fig. 1 and para. 0015 that the applicant simply did not retrieve. The examiner will supply that figure and paragraph to support the finding that magnetization M runs in the y direction and is perpendicular to the claimed first/second surfaces. The examiner can further argue that the retrieved abstract statement that magnetization lies 'in the plane of the plate' does not resolve the question, because the claim's 'first surface and second surface' must be mapped to specific faces of YAKUSHIJI's laminate (the main surfaces contacted by the isolation layer vs. the end main surfaces across which the temperature difference is applied in the stacking/thickness direction); depending on that mapping the same in-plane magnetization vector can be perpendicular to the relevant claimed surfaces. The applicant's argument is currently built on ABSENCE in the applicant's own truncated excerpt, not on an affirmative contradiction the examiner cannot cure.

How to adjust Do NOT rest the argument on the excerpt being truncated — the examiner has Fig. 1/para. 0015 and will fill it. The durable version is the AFFIRMATIVE grounded abstract/claim-1 statement that magnetization lies in the plane of the plate, tied to a rigorous geometry mapping of which YAKUSHIJI faces are the claimed first/second surfaces. Counsel should obtain Fig. 1 and para. 0015 and confirm the plate orientation and stacking direction BEFORE pressing this; if Fig. 1 shows the magnetization perpendicular to the isolation-layer faces the applicant is mapping, this collapses and an amendment tying the perpendicular component to a specifically defined surface may be the cleaner path. Because this is the §102 base for claims 1, 2, 4, 6, 7 and the §103 base for 8-11, verifying it is high priority.

3

YAKUSHIJI holds its laminate together mechanically, not by the magnetization's magnetic force

Missing elementClaim 6Claim 7Rebuts: §102 rejection of claims 1, 2, 4, 6, 7

when a second thermoelectric stack is stacked due to the magnetic force of the magnetization component

The § 102 rejection of claim 6 relies on YAKUSHIJI's para. 0018 statement that a magnet increases magnetization between the thermocouples, but the fully-grounded YAKUSHIJI claims describe a different retention mechanism. Grounded claims 10 and 11 recite a fastening means that presses the bodies and electrode plates together in the thickness direction using through-bolts and nuts, and grounded claim 13 recites a separate in-plane magnetic-field-applying means used to enhance the anomalous Nernst effect — not to hold adjacent stacks in close contact (analysis). On the grounded record the reference therefore does not appear to supply stacking "due to the magnetic force of the magnetization component." Counsel may weigh this as an independent, fully-grounded basis for the failure of the claim 6/7 anticipation rejection, and note the same 'magnetic force' language recurs in claims 12, 14 and 16.

  • YAKUSHIJI claim 10 (fastening means pressing bodies and electrode plates in the thickness direction) and claim 11 (bolt with head and threads plus a nut to tighten the laminate)
  • YAKUSHIJI claim 13 (a magnetic-field-applying means that applies a field in the in-plane direction)
  • OA3 claim chart: "grounded claims 10-11 hold the laminate together by MECHANICAL FASTENING ... claim 13 provides a separate in-plane magnetic-field-applying means to enhance the Nernst effect — not to hold adjacent stacks in close contact"
MPEP § 2131 — every limitation must be disclosed; MPEP § 2141.02 — a reference must be read in its entirety, including teachings that point away from the mapped feature

Risk The examiner may respond that a magnetized ferromagnetic body inherently exerts an attractive force so that stacks are 'also' held magnetically; counsel should be ready to show the grounded text ties retention to bolts/nuts and reserves the magnetic field for signal enhancement. Prosecution-history caution: characterizing the stack as held by the layers' own magnetization narrows scope and may disclaim mechanically fastened embodiments.

Likely examiner response survives — moderate

The examiner mapped claim 6 to YAKUSHIJI para. 0018 (a magnet increasing magnetization between thermocouples), and the presence of a mechanical through-bolt/nut fastening means in grounded claims 10-11 does not negate that a magnetized ferromagnetic body ALSO exerts magnetic attraction — the two retention mechanisms are not mutually exclusive. The examiner can also invoke BRI on the 'when a second thermoelectric stack is stacked due to the magnetic force' phrasing as functional/contingent language (MPEP § 2111.04): the claim does not require magnetic force to be the exclusive or even the operative stacking mechanism, so a reference whose magnetized bodies inherently attract can read on it. Attacking YAKUSHIJI's claims 10-13 individually does not answer the para. 0018 basis the examiner actually relied on.

How to adjust Engage para. 0018 head-on rather than answering it with the fastening-means claims, since the examiner's mapping rests on 0018, not on claims 10-13. Confirm what para. 0018 actually says (it is described as an examiner-cited passage — verify it is in the grounded record) and whether it links magnetic force to inter-stack retention or merely to enhancing the Nernst effect (as grounded claim 13's in-plane field means suggests). Also anticipate a conditional-claim-construction counter and be ready to argue the 'due to the magnetic force' clause is a positive structural/causal requirement, not a contingent one.

4

Combining two YAKUSHIJI alloys into one layer rests on an incomplete/conclusory Kerkhoven rationale

Conclusory rationaleClaim 10Claim 11Rebuts: §103 rejection of claims 10, 11

the thermoelectric material layer comprises two or more thermoelectric materials

The § 103 rejection of claim 10 asserts it would have been prima facie obvious to combine two of YAKUSHIJI's alloys (FeAl, FeGa, FeGaB, FeGaTa) under In re Kerkhoven, but the grounded YAKUSHIJI claims present these as alternative single materials for the whole body (claims 2 and 3 recite Fe-Al and Fe-Ga alloys in the alternative), not as constituents to be blended into one thermoelectric material layer (analysis). Counsel may weigh whether Kerkhoven — directed to mixing compositions each taught for the same purpose — supplies a rational underpinning for forming a layer of two or more of these alloys, or whether the reasoning is conclusory. The office action's own text for the claim 11 rationale (stacking unit layers of two or more materials) appears cut off mid-sentence, so the record may not contain a complete articulated basis for that dependent claim. These claims also depend from claim 1 and carry the fully-grounded magnetization gap of Argument 1.

  • Office action: "it would have been obvious to one of ordinary skill in the art ... to have combined two of the materials disclosed in YAKUSHIJI ... In re Kerkhoven"
  • YAKUSHIJI claims 2 and 3 recite Fe100-xAlx and Fe100-yGay alloys as alternative single materials for the body
  • OA1 rationale note: "Claim 11 ... the document text appears to be cut off mid-sentence during this rationale."
MPEP § 2143.01 — a § 103 rejection requires articulated reasoning with a rational underpinning; MPEP § 2144.06 — combining/substituting equivalents must be supported

Risk The examiner can readily complete the rationale and combining known thermoelectric alloys for the same purpose is often deemed predictable; this is a reasoning-quality challenge, not a missing-teaching challenge, so it may prompt a clarified rejection rather than withdrawal.

Likely examiner response fragile — the comeback likely defeats it

In re Kerkhoven is directly on point for combining materials each disclosed for the SAME purpose: YAKUSHIJI presents FeAl, FeGa, FeGaB, FeGaTa all as thermoelectric-body alloys serving the same anomalous-Nernst function, and the fact that grounded claims 2-3 recite them in the ALTERNATIVE is precisely the Kerkhoven fact pattern, not an obstacle to it. The examiner can argue the expectation that a blend of two such same-purpose alloys would serve the same purpose supplies the rational underpinning (MPEP § 2143). The recitation of alloys as alternatives does not teach away from combining them.

How to adjust The pure Kerkhoven attack is weak because alternatives taught for the same purpose fit Kerkhoven. The genuinely pressable sub-points are (a) the claim 11 rationale text that appears cut off mid-sentence — if the office action truly does not articulate a complete rationale for the stacked-unit-layer limitation, that is an articulation gap under MPEP § 2143.01 worth flagging (confirm against the actual office-action text before asserting incompleteness), and (b) these claims ride the claim-1 magnetization gap of Argument 1. Steer counsel to press the articulation gap and the inherited base-claim gap rather than the Kerkhoven mixing theory; consider amendment if claim 1 survives.

5

Horio's cited adhesiveness paragraph is outside the verified excerpt, and claims 8-9 inherit the claim 1 gap

Mischaracterized referenceClaim 8Claim 9Rebuts: §103 rejection of claims 8, 9

the insulation region is adhesive

The § 103 rejection of claims 8 and 9 leans on Horio para. 0146 (and layer numbers 32a, 32b, 36b, 38b) for the teaching that the insulating regions "have adhesiveness," but the retrieved Horio text is expressly truncated within the First Embodiment and does not reach para. 0146 or those reference numbers. The grounded Horio text confirms only that its insulating layers are made of polyimide or epoxy resin, filler-containing resin, or alumite — it does not, in the verified portion, establish adhesiveness. Counsel should therefore adopt a verify-first posture as to the adhesiveness teaching before relying on any distinction, and separately note that claims 8 and 9 depend from claim 4/claim 1 and thus carry forward the fully-grounded perpendicular-magnetization gap of Argument 1. Counsel may also weigh whether the examiner's assertion that anodized aluminum/aluminum nitride and adhesive resins are "art-recognized equivalents" is supported or merely conclusory under MPEP § 2144.06.

  • Office action: "YAKUSHIJI does not teach the insulation region is adhesive" and "Horio teaches ... said insulating regions have adhesiveness [para. 0146]"
  • OA2 reality check: the Horio excerpt "is expressly truncated ('[…description truncated]') ... and does not reach the paragraph (¶[0146]) the examiner cites, nor the layer reference numbers (32a, 32b, 36b, 38b)"
  • Horio grounded text: "Examples of the insulating synthetic resin are polyimide resin or epoxy resin, and an example of insulating alloy is alumite."
MPEP § 2143 / § 2144.06 — a substitution/known-equivalents rationale must rest on articulated factual findings; verify-first grounding for the unseen ¶[0146]Evidence needed: Obtain and review Horio para. 0146 and the surrounding disclosure to confirm the adhesiveness teaching and the equivalence assertion.

Risk The examiner will produce para. 0146, which likely does disclose adhesive insulating resins, and adhesive insulators are widely known; this distinction may evaporate on verification. The stronger, fully-grounded lever remains the inherited claim 1 magnetization gap.

Likely examiner response fragile — the comeback likely defeats it

The examiner has the full Horio reference, including para. 0146 and reference numbers 32a/32b/36b/38b that the applicant did not retrieve, and will supply the adhesiveness teaching. On the §103 posture the examiner can also rely on the art-recognized-equivalents rationale (MPEP § 2144.06) — anodized aluminum/aluminum nitride and adhesive resins as functional equivalents — which does not require the exact para. 0146 language to be in the applicant's excerpt. The inherited claim-1 gap is only as strong as Argument 1 and rises or falls with it.

How to adjust The adhesiveness sub-point is a verify-first item — do NOT assert absence of the para. 0146 teaching when the applicant's excerpt is admittedly truncated; obtain para. 0146 and the cited reference numbers first. The MPEP § 2144.06 conclusoriness challenge (whether the equivalence assertion is supported or bare) is a legitimate but secondary lever. The most durable content here is the inherited claim-1 perpendicular-magnetization gap, which is fully covered by pressing Argument 1 — so this argument adds little independent value and should follow Argument 1's fate.

6

Nakatsuji's grounded claims describe identical-material serpentine elements, not opposite-sign alternating layers

Mischaracterized referenceClaim 14Claim 16Rebuts: §102 rejection of claims 14, 16

one or more first thermoelectric material layers having positive transverse thermoelectric power and one or more second thermoelectric material layers having negative transverse thermoelectric power are alternately stacked

For claim 14 the examiner maps Nakatsuji's Fig. 13 embodiment (elements 24/25 of opposite Nernst sign) and paras. 0065-0070, but those specific passages were not present in the available excerpt, which is truncated before Fig. 13. The retrieved Nakatsuji claims instead describe a plurality of elements each "made of a material identical" to one another and connected in series in a "serpentine shape" — a single-material arrangement that points away from the claimed alternately stacked opposite-sign layers (analysis). Because the reference is graded fully grounded overall but the relied-upon Fig. 13 text was never seen, counsel should adopt a verify-first posture: obtain and confirm Fig. 13 and paras. 0056, 0061, 0063 and 0065-0070 before relying on any distinction, while noting that the grounded claims themselves cut against the examiner's opposite-sign reading. This argument is ranked below the two fully-grounded YAKUSHIJI distinctions because its dispositive teaching has not yet been verified.

  • Nakatsuji claim 10: "made of a material identical to that of the thermoelectric conversion element according claim 1 ... electrically connected in series to one another in a serpentine shape"
  • OA2 reality check: the available description excerpt "does NOT reach the Fig. 13 embodiment or the paragraphs the examiner relies on (e.g., ¶¶0056, 0061, 0063, 0065-0070) or any elements numbered 24, 25, 24a, 24b, 25a, 25b"
MPEP § 2131 — anticipation requires the reference to disclose every element arranged as claimed; MPEP § 2141.02 — read the reference in its entiretyEvidence needed: Obtain and review Nakatsuji Fig. 13 and paras. 0056, 0061, 0063 and 0065-0070 to confirm whether opposite-sign alternating layers 24/25 are actually disclosed.

Risk The examiner will produce Fig. 13 and paras. 0065-0070, which may in fact disclose opposite-sign layers 24/25; the serpentine identical-material claims are a separate embodiment and do not by themselves negate Fig. 13. Do not label this dispositive until the Fig. 13 text is verified.

Likely examiner response fragile — the comeback likely defeats it

Nakatsuji is graded fully grounded and a reference is not limited to its claims; the examiner has Fig. 13 and paras. 0065-0070 (elements 24/25 of opposite Nernst sign) that the applicant's excerpt is truncated before reaching. The grounded claims describing an identical-material serpentine embodiment merely describe a DIFFERENT embodiment and do not negate the opposite-sign alternating-layer embodiment the examiner actually mapped. The examiner will supply the relied-upon passages, and a single-embodiment description in the claims does not overcome a distinct disclosed embodiment in the specification.

How to adjust This cannot be pressed as a distinction until Fig. 13 and paras. 0056, 0061, 0063 and 0065-0070 are obtained and confirmed — the applicant has never seen the relied-upon text, so 'points away' rests on a different embodiment, not on verified absence. Adopt a strict verify-first posture: if Fig. 13 does teach opposite-sign alternating elements, this argument collapses and an amendment distinguishing the specific stacked opposite-sign arrangement may be the appropriate path. Rank it last among the substantive arguments until verification.

7

Claim 6 second-isolation-layer indefiniteness — construction or amendment lever

Definiteness rebuttalClaim 6Claim 7Rebuts: §112(b) rejection of claims 1, 2, 4, 6, 7, 8, 9, 10, 11, 12, 13

the second isolation layer comprises ... a second insulation region that electrically insulates the thermoelectric material layer from a thermoelectric material layer of the second thermoelectric stack and a second electrode region

The examiner finds claim 6 indefinite because it is unclear how a second isolation layer performs insulating/connecting functions already assigned to the first isolation layer in claim 1, and how the second isolation layer is stacked on a second surface given the claimed stacking geometry. For counsel to weigh: claim 6 introduces a first/second nomenclature and a second isolation layer on the opposite (second) surface interfacing a further neighboring stack, so under BRI the two isolation layers may be read as serving two different adjacent interfaces rather than duplicating one function. This is a genuine clarity issue and counsel should candidly assess whether a clarifying amendment distinguishing the two interfaces (each isolation layer facing a different neighboring stack) is more effective than construction argument alone. The strength of this definiteness challenge is limited, so it should be weighed alongside the fully-grounded § 102 defenses to claim 6 in Argument 2.

  • Office action: "it is not clear how a second isolation layer electrically insulates ... since claim 1 ... requires the isolation layer ... to electrically insulate the thermoelectric material layer"
  • Office action: "One of ordinary skill in the art cannot reasonably ascertain which of the first or second insulation and electrode regions insulate and electrically connect"
MPEP § 2173.02 / In re Packard — indefiniteness turns on whether scope is clear under BRI; MPEP § 2173.06(II) — compact prosecution permits paired art rejection

Risk This is a legitimate multi-interface ambiguity; the examiner may hold that the claim is amenable to more than one construction. A clarifying amendment distinguishing the two neighboring-stack interfaces is likely the more reliable route, so counsel should treat construction argument as secondary here.

8

Claim 14 'conducts together' and 'electrode regions' antecedent — scope ascertainable / amendment concept

Definiteness rebuttalClaim 14Claim 16Claim 18Claim 19Rebuts: §112(b) rejection of claims 14, 16, 18, 19

an electrode region that conducts the first and second thermoelectric material layers together ... the electrode regions in contact with both surfaces

The examiner found "that conducts the first and second thermoelectric material layers together" unclear and expressly adopted the reasonable interpretation "that connects the first and second thermoelectric material layers together" for examination, and flagged that "the electrode regions" (plural) lacks an antecedent for the earlier "an electrode region" (singular). For counsel to weigh: because the examiner reached a workable construction and applied Nakatsuji to the claim, the scope is reasonably certain under the examination standard as to the 'conducts/connects' term, so the § 112(b) basis for that phrase may be contestable under In re Packard. The antecedent-basis point for singular-to-plural 'electrode region(s)' is a genuine formal defect that a clarifying amendment (conforming number and reciting plural electrode regions on both surfaces of each layer) would cure. Counsel should assess whether contesting the 'conducts' term while amending the antecedent is the efficient path, and should keep any characterization consistent with the Nakatsuji distinctions in Argument 3.

  • Office action: "For purposes of examination on the merits, the limitation will be read as 'that connects the first and second thermoelectric material layers together.'"
  • Office action: "while the claim initially recites 'an electrode region,' there is no prior recitation of 'electrode regions'. Accordingly, the limitation lacks antecedent basis."
MPEP § 2173.02 / In re Packard — examination definiteness (BRI), not the Nautilus litigation standard; MPEP § 2173.06(II) — paired art rejection is proper

Risk The antecedent-basis defect is real and best cured by amendment; arguing the 'conducts' term is definite while leaving the singular/plural mismatch invites a continued rejection. Cite the examination standard (In re Packard / § 2173.02), not Nautilus, if contesting definiteness in the response.

3.

Examiner's Characterization of the Cited Art

Note

What each cited reference actually discloses, checked against what the examiner said it teaches — limited to the reference text available to the analysis.

YAKUSHIJI (JP 2022061662 A)

JP 2022061662 AClaim text retrieved

The available text (English abstract + Japanese claims) describes a power-generation element using the anomalous Nernst effect: plate-shaped thermoelectric bodies 11 of a ferromagnetic Fe alloy whose magnetization lies IN THE PLANE of the plate, with connection terminals 13 at both ends along a first in-plane direction perpendicular to the magnetization. Electrode plates 12 carry at least an insulating layer 12b on the surface contacting the main surface of the bodies, and bodies and electrode plates are alternately laminated in the thickness direction and wired in series. A temperature difference is applied across the two end main surfaces along the stacking (thickness) direction, and the available claims show the stack is held together by mechanical fastening means (pressing, through-bolts and nuts) and that a separate magnetic-field-applying means applies a field in the in-plane direction.

Claim elementExaminer assertsReference disclosesEvidence
Claim 1 — thermoelectric material layer has a magnetization component perpendicular to the first and second surfacesThe thermoelectric material layer 11₁ has a magnetization M in the y direction perpendicular to the first and second surfaces (citing para. 0015, Fig. 1).MischaracterizedThe English abstract affirmatively states the magnetization lies IN THE PLANE: "connecting terminals at both ends in a first direction perpendicular to the direction of magnetization in the plane thereof." Because the abstract also places insulating layer 12b "on a surface in contact with the main surface," the surface on which the examiner rests the isolation layer is the main surface, and an in-plane magnetization is parallel — not perpendicular — to that surface. The temperature difference is applied along the stacking direction (through the main surfaces), consistent with in-plane M for the Nernst effect. (analysis) Para. 0015 and Fig. 1 are not in the available text and should be read directly to confirm the exact axis convention, but the abstract's in-plane statement is in direct tension with the examiner's assertion.
Claim 6 — second thermoelectric stack stacked 'due to the magnetic force of the magnetization component' on the opposite surface, with second insulation/electrode regionsThe upper insulating layer 12b is a second isolation layer; a magnet increases magnetization between the individual thermocouples (para. 0018), so the second stack is stacked due to the magnetic force of the magnetization component, forming second insulation and electrode regions.Partially supportedThe multi-layer structure (insulating layers on both main-surface sides, alternately laminated) is corroborated by the abstract. However, the 'stacked due to the magnetic force of the magnetization component' aspect is in tension with the available claims: claims 10-11 recite fastening means (thickness-direction pressing, through-bolts and nuts) that hold the laminate together, and claim 13 recites a magnetic-field-applying means (磁場印加手段) that applies a field 'in the in-plane direction' — i.e., a field to enable the Nernst effect, not a perpendicular attractive force to self-stack layers. Para. 0018, on which the examiner relies for the magnet statement, is not in the available text and should be read directly.
Claim 1 — a thermoelectric stack comprising a thermoelectric material layer with an isolation layer stacked on its first surface (mapped to body 11₁ + insulating layer 12b and connection terminal 13)Stack 'A' (body 11₁ + electrode plate 12) is the thermoelectric stack; 12b is the insulation region and connection terminal 13 is the electrode region of the isolation layer stacked on the first surface.Partially supportedThe abstract supports the general structure (bodies + electrode plates with insulating layer 12b on the surface contacting the main surface, alternately laminated). Note (analysis): the abstract attributes connection terminals 13 to the thermoelectric bodies ('connecting terminals at both ends ... 13') while insulating layer 12b is a feature of the electrode plates 12; the examiner's combined 'isolation layer = 12b + 13' therefore merges a feature of the electrode plate with terminals of the thermoelectric body — a construction for counsel to weigh. Paras. 0013/0021 cited by the examiner are not in the available text.
Claim 2 — electrode region made of a material different from that of the two thermoelectric material layersConnection terminal 13 comprises indium while the thermoelectric layers comprise FeGa/FeAl/FeGaB/FeGaTa (citing paras. 0019-0020, 0023).Partially supportedThe available claims support that the electrode plate material differs from the Fe-alloy thermoelectric body: claim 4 (aluminum/aluminum alloy conductive member), claim 5 (copper/copper alloy), claim 6 (a ferromagnet of opposite-sign Nernst coefficient), versus claims 2-3 (Fe-Al and Fe-Ga alloys for the bodies). The specific assertion that connection terminal 13 comprises 'indium' is not found in the available text (para. 0023 is not provided).
Claim 8 (§103) — YAKUSHIJI's insulation region 12b comprises anodized aluminum or aluminum nitrideYAKUSHIJI teaches the insulation region (12b) comprising anodized aluminum or aluminum nitride (para. 0021).Partially supportedReference claim 4 recites the insulating layer as alumite (アルマイト, anodized aluminum), supporting the anodized-aluminum portion. 'Aluminum nitride' is not found in the available text (para. 0021 is not provided).
Claim 10 (§103) — thermoelectric material selectable from FeAl, FeGa, FeGaB, FeGaTa alloysYAKUSHIJI teaches selection from FeAl, FeGa, FeGaB, or FeGaTa alloys (paras. 0018-0020), making it prima facie obvious to combine two.Partially supportedReference claims 2-3 support Fe-Al (Fe100-xAlx) and Fe-Ga (Fe100-yGay) alloys. FeGaB and FeGaTa are not found in the available text (paras. 0018-0020 are not provided).
Claim 4 — electrode region of the isolation layer interposed between the two thermoelectric material layers when the second stack is stackedThe electrode region (13) is interposed between 11₁ and 11₂ when the second stack is stacked on the opposite surface (Fig. 1).SupportedThe abstract states the "thermoelectric bodies and the electrode plates are alternately laminated in the thickness direction" and that a connection terminal of one body is connected to a terminal of the adjacent body "via the electrode plate," corroborating that a conductive/electrode structure sits between adjacent thermoelectric bodies. The specific Fig. 1 detail is not in the available text but the alternating-lamination teaching supports the mapping.
Claim 7 — first and second electrode regions positioned apart from each other in the plane of the surfaces in plan viewThe first electrode region (13) and second electrode region (13) are positioned apart from each other in the plane of the first and second surfaces in plan view (Fig. 1).SupportedReference claim 8 recites electrode portions at parts of the surfaces at both ends in the first direction, connected to the connection terminals — consistent with electrode regions located at opposite (spaced-apart) ends. (paraphrase of claim 8)

Nakatsuji (US 2020/0212282 A1)

US 2020/0212282 A1Claim text retrieved

The available text (abstract, claims, and a description excerpt) teaches a thermoelectric conversion element made of a Weyl-point material (exemplified by the full-Heusler ferromagnet Co2MnGa) that generates electromotive force by the anomalous Nernst effect, producing voltage V (~M×∇T) perpendicular to both heat current and magnetization. The device embodiment set out in the available claims/abstract arranges a plurality of such elements — all made of an identical material — in parallel and electrically connects them in series in a 'serpentine shape' on a substrate, or as a sheet covering a hollow member. The available description excerpt is truncated within the Weyl-fermion band-structure discussion and does NOT reach the Fig. 13 embodiment or the paragraphs the examiner relies on (e.g., ¶¶0056, 0061, 0063, 0065-0070) or any elements numbered 24, 25, 24a, 24b, 25a, 25b.

Claim elementExaminer assertsReference disclosesEvidence
one or more first thermoelectric material layers (24) with positive transverse thermoelectric power and one or more second layers (25) with negative transverse thermoelectric power, alternately stacked with an isolation layer (air/space) interposedNakatsuji's Fig. 13 device 20 has layers 24 (positive Nernst) and 25 (negative Nernst, opposite-sign Nernst coefficient) alternately stacked with an air/space isolation layer between them (¶¶0065-0066, 0070).Not found in available textThe available text does not contain this — it does not disclose elements numbered 24/25, opposite-sign transverse thermoelectric power layers, an air/space isolation layer, or a stacked arrangement. The excerpt truncates within the Weyl-fermion discussion before reaching ¶¶0065-0070. Note a tension for counsel: the device actually described in the available claims/abstract uses an 'identical' material in a 'serpentine' lateral array, not opposite-sign stacked layers; the full specification (¶¶0063-0070) should be checked.
isolation layer comprising an insulation region (space) that electrically insulates the first and second layers held in close contact by magnetic forceThe space provided between stacks serves as the insulation region insulating layers 24 and 25 that are in close contact due to magnetic force (¶¶0061, 0066, 0068, 0070).Not found in available textThe available text does not contain this — no 'space' insulation region, no close-contact-by-magnetic-force arrangement, and none of ¶¶0061/0066/0068/0070 appear in the available excerpt. The full specification should be checked.
an electrode region (24a, 24b, 25a, 25b) that connects the first and second layers together, the electrode regions in contact with both surfaces arranged spaced apart in a direction perpendicular to both the stacking direction and the temperature-gradient directionRegions 24a, 24b, 25a, 25b connect layers 24 and 25 and are arranged at positions spaced apart perpendicular to both the stacking direction and the temperature gradient Q direction (¶0067, Fig. 13).Not found in available textThe available text does not contain this — it does not disclose electrode regions 24a/24b/25a/25b or ¶0067, which lie beyond the truncated excerpt. The available claim 10 instead describes series connection 'in a serpentine shape' among identical-material elements. The full specification (¶0067, Fig. 13) should be checked.
(claim 16) adjacent first and second layers removably/removably stacked with the isolation layer (space) interposed due to magnetic force of the magnetization componentAdjacent layers 24 and 25 are removably stacked with the space isolation layer interposed due to magnetic force, with magnetization M1 of elements 24 oriented opposite to magnetization M2 of elements 25 (¶0056).Not found in available textThe available text does not contain this — ¶0056, the M1/M2 opposite-orientation teaching, and a removable magnetic stacking are not in the available excerpt. Counsel may additionally note that this 'opposite' orientation asserted for claim 16 appears inconsistent with the 'same direction' orientation the examiner asserted for claim 14; the full specification should be checked.
the first and second thermoelectric material layers have magnetization components in the same direction perpendicular to the plane in which they are stackedLayers 24 and 25 comprise ferromagnetic materials with magnetization components in the same perpendicular direction (¶¶0061, 0068).Partially supportedThe available text supports ferromagnetism generally (claim 4: "the material shows ferromagnetism") and a perpendicular magnetization geometry for a single element (Fig. 3: element "is magnetized in a direction +z"), but the specific two-layer 'same direction' arrangement and ¶¶0061/0068 are not found in the available text. Note also an apparent internal inconsistency in the examiner's own mapping: for claim 14 the examiner asserts the two layers are magnetized in the SAME direction, while for claim 16 the examiner cites ¶0056 for M1 being 'oriented opposite' to M2 — counsel may wish to reconcile these against the full specification.

Horio

US 2009/0301540 A1Claim text retrieved

The available text of Horio (US 2009/0301540 A1) describes a thermoelectric module device built from an array of Peltier elements (p-type and n-type semiconductor pairs) sandwiched between two heat sinks, with the invention's focus on the ratio of occupied to available area (≥50%) and non-occupied area (≤20%) to reduce temperature dispersion. The available text discloses electrically insulating layers (12, 17) made of insulating synthetic resin (polyimide resin or epoxy resin), filler-containing insulating synthetic resin, or insulating alloy (alumite), with fillers such as alumina, aluminum nitride, magnesium oxide, or silicon carbide powder. The provided excerpt is expressly truncated ('[…description truncated]') within the First Embodiment and does not reach the paragraph (¶[0146]) the examiner cites, nor the layer reference numbers (32a, 32b, 36b, 38b) the examiner invokes.

Claim elementExaminer assertsReference disclosesEvidence
The insulation region is adhesive (claim 8)Horio teaches that said insulating regions have adhesiveness (para. 0146), i.e., an insulating region having adhesiveness.Not found in available textThe available text does not contain this — no statement about adhesiveness appears anywhere in the provided excerpt, which is expressly truncated before reaching ¶[0146]. The full specification (particularly ¶[0146] and the embodiment describing layers 32a/32b/36b/38b) should be obtained and checked to confirm whether Horio actually characterizes any insulating region as adhesive.
Art-recognized equivalence / substitution of anodized aluminum, aluminum nitride and adhesive resins (MPEP 2144.06); known finite predictable options (MPEP 2143)Anodized aluminum, aluminum nitride and adhesive material resins were art-recognized equivalents, and an adhesive insulating region is one of a known finite number of predictable insulating materials.Not found in available textThe available text does not contain this — the factual predicate that Horio's resins are 'adhesive' (and thus equivalents to/substitutes for anodized aluminum or aluminum nitride) rests on the ¶[0146] adhesiveness teaching, which is not present in the provided (truncated) excerpt. Whether the full specification supplies this equivalence/substitution rationale is for counsel to verify against the complete Horio document.
The insulation region is separable (claim 9)The adhesive insulation region is separable because adhesive materials are capable of being separated/removed by peeling, cutting, machining or etching (Horio, para. 0146).Not found in available textThe available text does not contain this — the separability conclusion is the examiner's own inference built on the unverified 'adhesiveness' teaching at ¶[0146]; nothing in the provided excerpt describes an insulating region as adhesive, separable, peelable, or removable. The full specification should be checked.
Insulating regions made of anodized aluminum, aluminum nitride, polyimide resin or epoxy resin (materials list)Horio teaches insulating regions made of insulating materials such as anodized aluminum, aluminum nitride, polyimide resin or epoxy resin (para. 0146).Partially supportedThe available text supports polyimide resin, epoxy resin, and alumite (anodized aluminum) as insulating-layer materials: "Examples of the insulating synthetic resin are polyimide resin or epoxy resin, and an example of insulating alloy is alumite." However, aluminum nitride appears in the available text only as a FILLER powder ('aluminum nitride powder, i.e., AlN powder'), not as the insulating layer material; the cited ¶[0146] and layers 32a/32b/36b/38b are not within the available (truncated) text.
4.

Element-by-Element Claim Chart

Claim 1 — §102 (YAKUSHIJI)
Status glyphClaim elementStatusDisclosure / notesLocation
A thermoelectric stack comprising a thermoelectric material layer having a first surface and a second surface opposite each other and an isolation layer stacked on the first surface of the thermoelectric material layerYAKUSHIJIDisclosedThe plate-body-plus-electrode-plate architecture and the insulating-layer-bearing electrode plate are corroborated by the grounded YAKUSHIJI abstract/claims; the specific reference numerals and Fig. 1 the examiner relies on come from paras. 0013/0021 not present in the available excerpt but are consistent with the grounded abstract. Structural mapping appears supportable for counsel to weigh.YAKUSHIJI, Abstract (plate-shaped thermoelectric bodies 11; electrode plates 12 having at least an insulating layer 12b on a surface in contact with the main surface of the bodies; bodies and electrode plates alternately laminated in the thickness direction); OA §9 claim 1 mapping (stack 'A' = body 11₁ + electrode plate 12; isolation layer = 12b + connection terminal 13)
the thermoelectric material layer has a magnetization component perpendicular to the first surface and the second surfaceYAKUSHIJIArguably disclosedKEY CONTESTABLE POINT for counsel. The grounded YAKUSHIJI abstract and claim 1 state the magnetization lies IN THE PLANE of the plate-shaped body (terminals are set perpendicular to the in-plane magnetization). The isolation layer / electrode plate contacts the main (large) surfaces of the body, so the claim's first/second surfaces map to those main surfaces — meaning the grounded text describes magnetization PARALLEL to those surfaces, not perpendicular to them as claim 1 requires. The examiner's 'perpendicular' characterization rests on Fig. 1 and para. 0015, which are not in the available excerpt. Whether the grounded in-plane description undercuts the perpendicular-magnetization limitation is for counsel to weigh; confirming Fig. 1 geometry / para. 0015 is advisable.YAKUSHIJI, Abstract ('connecting terminals at both ends in a first direction perpendicular to the direction of magnetization in the plane thereof'); YAKUSHIJI, claim 1 (磁化の向きに対して垂直な第1の方向 — first direction perpendicular to the direction of magnetization in the plane); OA §9 claim 1 (examiner asserts 'magnetization M is in the y direction' perpendicular to the first and second surfaces, citing Fig. 1 and para. 0015)
the isolation layer comprises an insulation region and an electrode region, each of which is in close contact with the thermoelectric material layer and a thermoelectric material layer of a second thermoelectric stackYAKUSHIJIDisclosedThe grounded abstract confirms an electrode plate that carries both an insulating layer (12b) and connection terminals (13) between adjacent bodies, corroborating the insulation-region/electrode-region mapping.YAKUSHIJI, Abstract (electrode plates 12 with insulating layer 12b contacting the main surface; connection terminals 13 at both ends); OA §9 claim 1 (insulation region = 12b; electrode region = connection terminals 13)
when the second thermoelectric stack is stacked on the surface opposite to the surface on which the thermoelectric material layer is to be stacked, the insulation region that electrically insulates the thermoelectric material layer from a thermoelectric material layer of the second thermoelectric stack and the electrode region that electrically connects the thermoelectric material layer to the thermoelectric material layer of the second thermoelectric stackYAKUSHIJIArguably disclosedThis same limitation is separately rejected under §112(b) as indefinite (OA ¶7 — the surface referenced is unclear and the recitation 'appears incomplete'). The grounded abstract supports series electrical connection via terminals and insulation via 12b, so the electrical function is corroborated; however, the indefiniteness makes the precise scope uncertain, which counsel may weigh both as to the §112 rejection and as to what YAKUSHIJI must be shown to teach.YAKUSHIJI, Abstract (a wiring portion connecting one connection terminal of a body to a connection terminal of an adjacent body electrically connects the bodies in series); OA §9 claim 1
Claim 2 — §102 (YAKUSHIJI)
Status glyphClaim elementStatusDisclosure / notesLocation
the electrode region is made of a material different from that of the thermoelectric material layer and that of the thermoelectric material layer of the other thermoelectric stack, and contacts the two thermoelectric material layersYAKUSHIJIArguably disclosedThe examiner's specific 'indium' material for terminal 13 comes from para. 0023, not in the available excerpt (verify before relying on the exact material). Independently, the grounded claims show the electrode plate conductive member is aluminum or copper — different from the Fe-alloy bodies — which is consistent with the 'different material' requirement. Examiner also opines direct contact is not required and a 'region' may span multiple layers (OA §9 claim 2), an interpretive point counsel may weigh.YAKUSHIJI, claim 1 (bodies are a ferromagnetic Fe alloy); YAKUSHIJI, claim 4 (electrode plate = aluminum/aluminum alloy conductive member with alumite insulating layer); YAKUSHIJI, claim 5 (electrode plate = copper/copper alloy conductive member); OA §9 claim 2 (examiner asserts connection terminal 13 comprises indium, citing para. 0023)
Claim 4 — §102 (YAKUSHIJI)
Status glyphClaim elementStatusDisclosure / notesLocation
the electrode region of the isolation layer is interposed between the thermoelectric material layer and the thermoelectric material layer of the second thermoelectric stack when the second thermoelectric stack is stacked on the surface opposite the surface on which the thermoelectric material layer is stackedYAKUSHIJIDisclosedThe alternating body/electrode-plate lamination in the grounded abstract places the electrode plate (carrying terminal 13) between two adjacent bodies, corroborating the interposed-electrode limitation.YAKUSHIJI, Abstract (thermoelectric bodies and electrode plates alternately laminated in the thickness direction; a connection terminal of one body connected via the electrode plate to a terminal of the adjacent body); OA §9 claim 4
Claim 6 — §102 (YAKUSHIJI)
Status glyphClaim elementStatusDisclosure / notesLocation
the isolation layer is a first isolation layer... the thermoelectric stack has a second isolation layer stacked on the second surface, and the second isolation layer comprises... a second insulation region and a second electrode region that electrically connects the thermoelectric material layer to a thermoelectric material layer of the second thermoelectric stackYAKUSHIJIArguably disclosedThis claim is also rejected under §112(b) as indefinite (OA ¶7 — the examiner states it is unclear how a second isolation layer performs functions the first isolation layer already performs, and how the second isolating region is stacked on a second surface given the claimed structure). Because the scope is unsettled, the reference read is likewise unsettled — for counsel to weigh alongside the §112 rejection.YAKUSHIJI, Abstract (electrode plates with insulating layer 12b, alternately laminated); OA §9 claim 6 (first isolation layer = bottom 12b of electrode 12; second isolation layer = upper 12b contacting stack B)
when a second thermoelectric stack is stacked due to the magnetic force of the magnetization component on the surface opposite to the surface on which the thermoelectric material layer is to be stackedYAKUSHIJIArguably disclosedKEY CONTESTABLE POINT for counsel. The grounded YAKUSHIJI claims hold the stack together by MECHANICAL FASTENING (through-bolts and nuts, claims 10-11), and the magnetic-field means (claim 13) applies an in-plane field to enhance the Nernst effect — not to hold adjacent stacks in close contact. The claim's 'stacked due to the magnetic force of the magnetization component' therefore appears to describe a different holding mechanism than what the grounded YAKUSHIJI claims disclose. Whether this is a genuine distinction is for counsel to weigh.YAKUSHIJI, claim 10 (a fastening means presses the bodies and electrode plates in the thickness direction); YAKUSHIJI, claim 11 (fastening means with through-bolt having a head and threaded end and a mating nut to clamp the laminate); YAKUSHIJI, claim 13 (a separate magnetic-field-applying means applies a field in the in-plane direction); OA §9 claim 6 (examiner asserts 'a magnet increases magnetization between the individual thermocouples', citing para. 0018)
Claim 7 — §102 (YAKUSHIJI)
Status glyphClaim elementStatusDisclosure / notesLocation
the first electrode region and the second electrode region are positioned apart from each other in the plane of the first and second surfaces when the first and second surfaces are viewed in plan viewYAKUSHIJIArguably disclosedThe grounded claim 1 places terminals at 'both ends' along an in-plane direction, consistent with spaced-apart electrode regions in plan view. The specific first/second-electrode positions rely on Fig. 1 (not in the available excerpt). This claim also inherits the claim 6 §112 indefiniteness and the 'due to magnetic force' contest point above.YAKUSHIJI, claim 1 (connection terminals set at both ends in the first in-plane direction); OA §9 claim 7 (examiner points to annotated Fig. 1 showing a '1st electrode region' at lower left and a '2nd electrode region' at upper right)
Claim 8 — §103 (YAKUSHIJI in view of Horio)
Status glyphClaim elementStatusDisclosure / notesLocation
the insulation region is adhesiveYAKUSHIJI, HorioArguably taughtThe adhesiveness teaching the examiner relies on (Horio ¶0146 and layer numbers 32a/32b/36b/38b) is NOT in the available Horio excerpt, which is expressly truncated within the First Embodiment before reaching ¶0146. The available grounded Horio text discloses insulating resins (polyimide/epoxy) but does not state they are adhesive. Verify-first: obtain and confirm Horio ¶0146's adhesiveness teaching before relying on any distinction. The examiner's obviousness theory rests on 'finite predictable options' (MPEP 2143) and 'art-recognized equivalents' (MPEP 2144.06) — an obviousness rationale counsel may weigh independently of the ¶0146 verification.Horio, description excerpt (electrically insulating layers 12, 17 made of insulating synthetic resin — polyimide resin or epoxy resin — filler-containing resin, or alumite); OA §13 claim 8 (examiner relies on Horio para. 0146 for insulating regions 32a/32b/36b/38b 'having adhesiveness')
Claim 14 — §102 (Nakatsuji)
Status glyphClaim elementStatusDisclosure / notesLocation
one or more first thermoelectric material layers having positive transverse thermoelectric power and one or more second thermoelectric material layers having negative transverse thermoelectric power are alternately stacked with an isolation layer interposed therebetweenNakatsujiArguably disclosedKEY CONTESTABLE POINT for counsel. The grounded Nakatsuji claims describe a device whose plural elements are all 'made of a material identical' to one another and connected in serpentine series — not alternating layers of OPPOSITE-sign transverse thermoelectric power. The examiner's positive/negative alternating read rests entirely on Fig. 13 and paras. 0065-0070, which are NOT in the available excerpt (the description excerpt is truncated within the Weyl-fermion discussion and never reaches Fig. 13, ¶¶0056/0061/0063/0065-0070, or elements 24/25/24a/24b/25a/25b). Verify-first: obtain and confirm Fig. 13 and ¶¶0065-0070 before treating this as taught; the grounded claims point the other way. This limitation is also affected by the §112 issues in claim 14 (OA ¶7 — 'conducts... together' interpreted as 'connects', and lack of antecedent basis for 'the electrode regions').Nakatsuji, claim 10 ('a plurality of thermoelectric conversion elements... each... made of a material identical to that of the thermoelectric conversion element according to claim 1... electrically connected in series... in a serpentine shape'); OA §10 claim 14 (examiner relies on Fig. 13 and paras. 0065-0070; element 24 positive, element 25 negative Nernst coefficient)
the first and second thermoelectric material layers have magnetization components in the same direction perpendicular to the plane in which they are stackedNakatsujiArguably disclosedThe relied-upon paras. 0061/0068 are not in the available excerpt. Note an internal tension in the examiner's reading for counsel to weigh: claim 14 requires the two layers' magnetizations to be in the SAME direction, but the examiner's claim 16 rationale (OA §10 claim 16) cites Nakatsuji ¶0056 for magnetization M1 of elements 24 oriented OPPOSITE to M2 of elements 25. Verify-first on ¶¶0056/0061/0068 to resolve whether Nakatsuji's layers are same-direction or opposite-direction magnetized.Nakatsuji, description excerpt (element magnetized in a direction +z; ferromagnetic Co2MnGa); OA §10 claim 14 (examiner cites paras. 0061, 0068)
the isolation layer comprises an insulation region that electrically insulates the first and second thermoelectric material layers that are in close contact with each other due to the magnetic force of the magnetization componentNakatsujiArguably disclosedThe examiner maps the insulation region to an air space and asserts close contact 'due to the magnetic force' via paras. 0061/0066/0070 that are not in the available excerpt. The grounded Nakatsuji claims (serpentine, identical-material, substrate-mounted; or sheet over hollow member) do not describe layers held in close contact by magnetic force. Verify-first before relying on any distinction regarding the 'magnetic-force close contact' mechanism.OA §10 claim 14 (examiner maps the insulation region to a 'space provided between stacks' / air layer, citing paras. 0061, 0066, 0068, 0070)
an electrode region that conducts the first and second thermoelectric material layers together, and the electrode regions in contact with both surfaces of the first and second thermoelectric material layers are arranged at positions spaced apart from each other in a direction perpendicular to both the stacking direction of the thermoelectric material layers and the direction in which a temperature gradient is appliedNakatsujiArguably disclosedRelied-upon Fig. 13 and ¶0067 and elements 24a/24b/25a/25b are NOT in the available excerpt. This limitation is separately rejected under §112(b) (OA ¶7 — 'conducts... together' unclear, interpreted as 'connects', and 'the electrode regions' lacks antecedent basis for the singular 'an electrode region'). Verify-first on ¶0067/Fig. 13; the geometric spaced-apart arrangement cannot be confirmed from the available record.OA §10 claim 14 (examiner maps electrode regions to 24a/24b/25a/25b, citing para. 0067 and Fig. 13)
Claim 16 — §102 (Nakatsuji)
Status glyphClaim elementStatusDisclosure / notesLocation
the first thermoelectric material layer and the second thermoelectric material layer adjacent to each other are removably stacked with the isolation layer interposed therebetween due to the magnetic force of the magnetization componentNakatsujiArguably disclosedThe relied-upon ¶0056 is not in the available excerpt (verify-first). Two contest points for counsel: (1) whether ¶0056 actually teaches layers 'removably stacked... due to the magnetic force' as opposed to merely describing opposite magnetization orientations; and (2) the same ¶0056 content the examiner cites (M1 opposite M2) appears to conflict with parent claim 14's requirement that the magnetizations be in the SAME direction. OMISSION NOTE (per 8-claim cap): rejected claims 9 (§103 YAKUSHIJI/Horio — 'separable', also the subject of the claim-9 objection to 'separatable'), 10 and 11 (§103 YAKUSHIJI — two-or-more thermoelectric materials / stacked unit layers, In re Kerkhoven combination rationale, with the claim 11 rationale text cut off mid-sentence in the OA) were not separately charted. Claims 12-13 (§112 dependency) and 18-19 were likewise not separately charted; each inherits the parent-claim reference reads and §112 issues noted above.OA §10 claim 16 (examiner cites para. 0056: 'magnetization M1 of the thermoelectric conversion elements 24 is oriented opposite to a direction of magnetization M2 of the thermoelectric conversion elements 25')

Elements not shown by the cited art (3)

  • Claim 1 — “the thermoelectric material layer has a magnetization component perpendicular to the first surface and the second surface”: YAKUSHIJI is the only asserted reference and is graded fully grounded. Its grounded abstract and claim 1 affirmatively describe magnetization lying IN THE PLANE of the plate-shaped body (terminals set 'perpendicular to the direction of magnetization in the plane thereof'), with the electrode plate/isolation layer contacting the body's main surfaces — i.e., magnetization parallel to, not perpendicular to, the surfaces on which the isolation layer sits. The examiner's 'perpendicular' reading depends on Fig. 1 and para. 0015, which are outside the available excerpt. Strong prima-facie-failure candidate for counsel, subject to confirming Fig. 1 geometry / para. 0015.
  • Claim 6 — “when a second thermoelectric stack is stacked due to the magnetic force of the magnetization component”: YAKUSHIJI is the only asserted reference and is fully grounded. Its grounded claims 10-11 hold the laminate together by MECHANICAL FASTENING (through-bolts and nuts), and grounded claim 13 provides a separate in-plane magnetic-field-applying means to enhance the Nernst effect — not to hold adjacent stacks in close contact. The grounded record therefore does not appear to supply stacking 'due to the magnetic force of the magnetization component.' Prima-facie-failure candidate for counsel (this limitation also flows into claims 7, 12, and — in analogous 'magnetic force' form — claims 14 and 16).
  • Claim 14 — “first thermoelectric material layers having positive transverse thermoelectric power and second thermoelectric material layers having negative transverse thermoelectric power, alternately stacked”: Provisional / verify-first, ranked BELOW the two YAKUSHIJI findings above. Nakatsuji is the only asserted reference; although graded fully grounded, the specific passages the examiner relies on for the opposite-sign alternating layers (Fig. 13 and paras. 0065-0070, elements 24/25) are NOT in the available excerpt (truncated before Fig. 13). The available grounded Nakatsuji claims instead describe plural elements 'made of a material identical' to one another connected in serpentine series — pointing away from opposite-sign alternating layers. Because the relied-upon Fig. 13 embodiment text was never seen, this cannot be treated as definitively absent; counsel should obtain and verify Fig. 13 and ¶¶0065-0070 before relying on any distinction.
5.

Rejection Map

OtherRejection — claims 9

Claim objection for informality: the term 'separatable' should be replaced with 'separable'.

§112(b)Indefiniteness — claims 1, 2, 4, 6, 7, 8, 9, 10, 11, 12, 13

Claim 1: (1) The limitation 'the surface opposite to the surface on which the thermoelectric material layer is stacked' is unclear — it is not clear what constitutes that surface (the examiner conjectures it may be the isolation layer but notes it is improper to import limitations from the specification). (2) The recitation regarding the insulation region and electrode region 'appears incomplete' — the examiner suggests the word 'that' between 'the insulation region' and 'electrically insulates' should be removed. Claims 2, 4, and 7-13 are rejected for dependency on claim 1. Claim 6 has additional indefiniteness: it is unclear how a second isolation layer performs the insulating and connecting functions when the first isolation layer already performs them per claim 1, and it is unclear how the second isolating region is stacked on a second surface given the claimed structure. Claim 7 is rejected for dependency on claims 1 and 6.

§112(b)Indefiniteness — claims 14, 16, 18, 19

Claim 14: (1) The limitation 'that conducts the first and second thermoelectric material layers together' is unclear — the examiner interprets it as 'connects' for purposes of examination. (2) The claim initially recites 'an electrode region' (singular) but subsequently refers to 'the electrode regions' (plural) — lacking antecedent basis. Claims 16 and 18-19 are rejected for dependency on claim 14.

§102Anticipation — claims 1, 2, 4, 6, 7

YAKUSHIJIJP 2022061662 A

Claim 1: YAKUSHIJI's thermoelectric stack (stack 'A' in annotated Fig. 1) with thermoelectric body 11₁ and electrode plate 12 meets the thermoelectric stack; 11₁ is the thermoelectric material layer with magnetization M in y direction perpendicular to surfaces; the isolation layer corresponds to bottom insulating layer 12b and connection terminal 13, with 12b as the insulation region and 13 as the electrode region; the second thermoelectric stack is stack 'B' comprising 11₂ and a further electrode plate 12. Claim 2: electrode region (connection terminal 13) comprises indium, while thermoelectric layers 11 comprise FeGa/FeAl/FeGaB/FeGaTa — different materials; the examiner notes direct contact is not required and a 'region' may include more than one layer. Claim 4: the electrode region (13) is interposed between 11₁ and 11₂ when the second stack is stacked on the opposite surface. Claim 6: first isolation layer is bottom insulating layer 12b of electrode 12; second isolation layer is upper insulating layer 12b contacting stack B; a magnet increases magnetization between the thermocouples (para. 0018); second insulation and electrode regions identified analogously. Claim 7: first electrode region (13) and second electrode region (13) positioned apart from each other in the plane of the surfaces in plan view, shown in annotated Fig. 1.

§102Anticipation — claims 14, 16

NakatsujiUS 2020/0212282 A1

Claim 14: Nakatsuji's thermoelectric device 20 (Fig. 13) has first thermoelectric material layers (24) with positive transverse thermoelectric power and second layers (25) with negative transverse thermoelectric power alternately stacked with isolation layers (air layer/space) interposed; layers 24 and 25 are ferromagnetic with magnetization components in the same perpendicular direction; the space between stacks serves as the insulation region; electrode regions correspond to regions 24a, 24b, 25a, 25b that connect adjacent layers; electrode regions in contact with both surfaces are arranged at positions spaced apart perpendicular to both stacking direction and temperature gradient direction. Claim 16: adjacent thermoelectric material layers 24 and 25 are removably stacked with the isolation layer (space) interposed therebetween due to magnetic force, citing para. 0056 regarding opposite magnetization orientations M1 and M2.

§103Obviousness — claims 8, 9MPEP §2143(E)

YAKUSHIJIJP 2022061662 AHorioUS 2009/0301540 A1

Claim 8: YAKUSHIJI teaches the insulation region (12b) comprising anodized aluminum or aluminum nitride but does not teach the insulation region is adhesive. Horio teaches a thermoelectric device with insulating regions made of anodized aluminum, aluminum nitride, polyimide resin or epoxy resin, said insulating regions having adhesiveness (para. 0146). The examiner argues these are a known finite number of predictable insulating materials (MPEP 2143) and further that anodized aluminum/aluminum nitride and adhesive resins are art-recognized equivalents suitable for substitution (MPEP 2144.06). Claim 9: the adhesive insulation region is separable because adhesive materials are capable of being separated by known techniques such as peeling, cutting, machining or etching.

§103Obviousness — claims 10, 11MPEP §2143(A)

YAKUSHIJIJP 2022061662 A

Claim 10: YAKUSHIJI does not teach the thermoelectric material layer comprising two or more thermoelectric materials but teaches selection from FeAl, FeGa, FeGaB, or FeGaTa alloys (paras. 0018-0020). The examiner argues it would have been prima facie obvious to combine two of these materials, each taught for the same purpose, citing In re Kerkhoven, 626 F.2d 846. Claim 11 (the thermoelectric material layer formed by stacking unit layers of two or more materials): the document text appears to be cut off mid-sentence during this rationale.

References Cited

6.

Record & Grounding

Grounding Summary

Note

How each cited reference was grounded. A reference the analysis could only read through the office action’s characterization is flagged — its findings are limited to what the examiner said, not the reference itself.

Power generation element using the abnormal Nernst effectJP2022061662A
Claim text retrieved
THERMOELECTRIC CONVERSION ELEMENT AND THERMOELECTRIC CONVERSION DEVICEUS20200212282A1
Claim text retrieved
THERMOELECTRIC MODULE DEVICE AND HEAT EXCHANGER USED THEREINUS20090301540A1
Claim text retrieved

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Automated consistency checks

Deterministic checks run over the analysis before assembly — automated heuristics, not legal conclusions.

  • Unverified quotation in Argument Bank (YAKUSHIJI's magnetization lies in-plane, not perpendicular to the surfaces): "describe magnetization lying IN THE PLANE of the plate-shaped body" does not appear verbatim in the record (office action, claims, specification, or reference text). Rephrase it as analysis or correct the quote before relying on it.
  • Unverified quotation in Argument Bank (YAKUSHIJI holds its laminate together mechanically, not by the magnetization's magnetic force): "grounded claims 10-11 hold the laminate together by MECHANICAL FASTENING ... claim 13 provides a separate in-plane ma…" does not appear verbatim in the record (office action, claims, specification, or reference text). Rephrase it as analysis or correct the quote before relying on it.
  • Unverified quotation in Argument Bank (Nakatsuji's grounded claims describe identical-material serpentine elements, not opposite-sign alternating layers): "made of a material identical to that of the thermoelectric conversion element according claim 1 ... electrically conn…" does not appear verbatim in the record (office action, claims, specification, or reference text). Rephrase it as analysis or correct the quote before relying on it.
  • Unverified quotation in Argument Bank (Nakatsuji's grounded claims describe identical-material serpentine elements, not opposite-sign alternating layers): "does NOT reach the Fig. 13 embodiment or the paragraphs the examiner relies on (e.g., ¶¶0056, 0061, 0063, 0065-0070) …" does not appear verbatim in the record (office action, claims, specification, or reference text). Rephrase it as analysis or correct the quote before relying on it.
  • Unverified quotation in Argument Bank (Horio's cited adhesiveness paragraph is outside the verified excerpt, and claims 8-9 inherit the claim 1 gap): "Horio teaches ... said insulating regions have adhesiveness [para. 0146]" does not appear verbatim in the record (office action, claims, specification, or reference text). Rephrase it as analysis or correct the quote before relying on it.
  • Unverified quotation in Argument Bank (Horio's cited adhesiveness paragraph is outside the verified excerpt, and claims 8-9 inherit the claim 1 gap): "is expressly truncated ('[…description truncated]') ... and does not reach the paragraph (¶[0146]) the examiner cites…" does not appear verbatim in the record (office action, claims, specification, or reference text). Rephrase it as analysis or correct the quote before relying on it.
  • Unverified quotation in Argument Bank (Combining two YAKUSHIJI alloys into one layer rests on an incomplete/conclusory Kerkhoven rationale): "it would have been obvious to one of ordinary skill in the art ... to have combined two of the materials disclosed in…" does not appear verbatim in the record (office action, claims, specification, or reference text). Rephrase it as analysis or correct the quote before relying on it.
  • Unverified quotation in Argument Bank (Combining two YAKUSHIJI alloys into one layer rests on an incomplete/conclusory Kerkhoven rationale): "Claim 11 ... the document text appears to be cut off mid-sentence during this rationale." does not appear verbatim in the record (office action, claims, specification, or reference text). Rephrase it as analysis or correct the quote before relying on it.
  • Unverified quotation in Argument Bank (Claim 6 second-isolation-layer indefiniteness — construction or amendment lever): "it is not clear how a second isolation layer electrically insulates ... since claim 1 ... requires the isolation laye…" does not appear verbatim in the record (office action, claims, specification, or reference text). Rephrase it as analysis or correct the quote before relying on it.

Obviousness Framework

Field of endeavor
Thermoelectric conversion stacks and devices that generate electromotive force via the transverse (anomalous Nernst) effect, using ferromagnetic thermoelectric material layers having a magnetization component perpendicular to the stacking surfaces, together with isolation layers providing insulation regions and electrode regions.
PHOSITA
For argument purposes (a proposed construction for counsel to adopt or adjust, not a factual finding): a person holding a degree in materials science, applied physics, or electrical/mechanical engineering, with several years of practical experience designing thermoelectric conversion devices, including familiarity with the anomalous Nernst effect in ferromagnetic alloys, magnetization orientation, multilayer stack assembly and interconnection, and the selection of insulating and electrode materials for such stacks.A construction for argument — not asserted as fact.
ReferenceAnalogous artRationale
YAKUSHIJI (JP 2022061662 A)AnalogousSame field of endeavor: the available abstract/claims describe a power-generation element using the anomalous Nernst effect with plate-shaped ferromagnetic Fe-alloy thermoelectric bodies, connection terminals, and electrode plates carrying an insulating layer — the same anomalous-Nernst thermoelectric stack art as the claimed invention (MPEP § 2141.01(a), prong 1).
Nakatsuji (US 2020/0212282 A1)AnalogousSame field of endeavor: the available text describes thermoelectric conversion elements/devices generating voltage by the anomalous Nernst effect (V ~ M×∇T) in ferromagnetic Weyl materials. (Used by the examiner only in the §102 anticipation of claims 14/16, not in a §103 combination; analogous-art status is dispositive only for §103 but is noted here for completeness.)
Horio (US 2009/0301540 A1)ContestableThe office action asserts YAKUSHIJI and Horio are, in its words, 'analogous inventions in the field of thermoelectric devices comprising insulating regions.' However, the available Horio text is directed to a Peltier/Seebeck semiconductor thermoelectric module device (p-type/n-type element pairs between heat sinks), a different operating mechanism than the anomalous Nernst / magnetic-material stack of the claims. Whether Horio is in the same field of endeavor is contestable; the 'reasonably pertinent to the inventor's problem' prong (MPEP § 2141.01(a), prong 2) — selection of insulating-layer materials for a thermoelectric stack — is the stronger analogous-art footing, and its scope is for counsel to weigh.

§103 rejection of claims 8 and 9 over YAKUSHIJI in view of Horio. Theory: YAKUSHIJI discloses the insulation region (12b) as anodized aluminum or aluminum nitride but not as adhesive; Horio allegedly teaches (at ¶0146) insulating regions of anodized aluminum, aluminum nitride, polyimide resin, or epoxy resin having adhesiveness; claim 9's 'separable' is said to follow because adhesive materials can be peeled/cut/etched.

YAKUSHIJI + Horio

Motivation asserted The examiner asserts adhesiveness is 'one of a known finite number of identified, predictable insulating materials' that a PHOSITA would be led to pursue with a reasonable expectation of success (MPEP § 2143, obvious-to-try rationale (E)), and separately that anodized aluminum / aluminum nitride and adhesive resins are 'art-recognized equivalents' subject to simple substitution (MPEP § 2144.06).

  • Otherstrong

    Per the Reference Reality Check, the provided Horio excerpt is expressly truncated ('[…description truncated]') within the First Embodiment and does NOT reach ¶[0146] or the layer reference numbers (32a, 32b, 36b, 38b) the examiner invokes. The available Horio text discloses insulating layers of 'insulating synthetic resin such as, for example, polyimide resin or epoxy resin,' filler-containing resin, or 'alumite,' but the provided record contains no passage stating those insulating regions have 'adhesiveness.' The central factual predicate of the combination therefore cannot be confirmed from the record supplied and, for counsel, should be verified against the full Horio text before it is relied on.

  • Conclusory motivationmoderate

    The obvious-to-try rationale (MPEP § 2143(E)) requires a finite number of identified, predictable solutions. The office action asserts adhesiveness is one such option but does not articulate what the identified finite set is, why an adhesive (as opposed to the anodized-aluminum insulator YAKUSHIJI actually uses) would be selected, or what problem in YAKUSHIJI the substitution solves. This is a point for counsel to weigh as potentially conclusory under MPEP § 2143.01.

  • Othermoderate

    The § 2144.06 art-recognized-equivalence theory requires that the substituted materials be recognized in the art as equivalents for the same purpose. On the available record, YAKUSHIJI's insulation region is anodized aluminum (alumite) on aluminum electrode plates functioning within a laminate; the record does not establish that adhesive resins and anodized aluminum were recognized as equivalents for that structural insulating role in an anomalous-Nernst stack. Whether the equivalence finding is supported is for counsel to weigh.

  • Otherweak

    The YAKUSHIJI available claims describe the stack being held together by mechanical 'fastening means' (pressing, through-bolts and nuts). An adhesive insulating layer serves a different assembly function than a rigid anodized-aluminum insulator held by bolts, so whether a PHOSITA would be motivated to introduce adhesiveness into a mechanically-fastened laminate — and whether doing so is consistent with YAKUSHIJI's assembly approach — is a question for counsel to weigh. (analysis)

§103 rejection of claims 10 and 11 over YAKUSHIJI alone. Theory: YAKUSHIJI does not disclose a thermoelectric material layer comprising two or more thermoelectric materials but teaches selection from FeAl, FeGa, FeGaB, or FeGaTa alloys (paras. 0018-0020); the examiner asserts it would have been prima facie obvious to combine two of these alloys, each taught for the same purpose, citing In re Kerkhoven.

YAKUSHIJI

Motivation asserted Relying on In re Kerkhoven, the examiner asserts it is prima facie obvious to combine two compositions each taught by the prior art to be useful for the same purpose, so combining two of YAKUSHIJI's listed alloys into a single thermoelectric layer flows logically from their individual disclosure.

  • No reasonable expectation of successmoderate

    YAKUSHIJI's available text presents the Fe alloys as ALTERNATIVE selections for the single thermoelectric body, not as materials to be combined; the reference (see YAKUSHIJI claims) also contemplates alloys with anomalous Nernst coefficients of opposite sign. Whether combining two such alloys into one layer yields a predictable functional transverse-thermoelectric result — rather than partially cancelling or degrading the anomalous Nernst output — is not established on the record (MPEP § 2143.02). This is a point for counsel to weigh.

  • Othermoderate

    In re Kerkhoven concerns mixing/combining two compositions each taught for the SAME purpose to form a third composition for that same purpose. On the available record YAKUSHIJI teaches selecting ONE alloy for the thermoelectric body, not mixing alloys; whether the Kerkhoven rationale extends to forming a single layer (claim 10) or a stack of distinct unit layers (claim 11) from two different alloys is contestable and for counsel to weigh.

  • Hindsight reconstructionmoderate

    The suggestion to combine two of YAKUSHIJI's alternative alloys into one thermoelectric layer, and to form that layer by stacking unit layers of two or more materials (claim 11), appears to track the applicant's own disclosure rather than any teaching in YAKUSHIJI to combine rather than select among the listed alloys (MPEP § 2143.01). Whether the reasoning rests on impermissible hindsight is for counsel to weigh.

  • Conclusory motivationmoderate

    The Reference Reality Check notes the office action's rationale for claim 11 'appears to be cut off mid-sentence,' and the reproduced OA text ends mid-citation ('In re Kerkhoven, 626'). The articulated reasoning supporting the claim 11 rejection is therefore incomplete in the provided record; counsel should confirm the complete rationale before responding and may note the incompleteness under MPEP § 2143.01.

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