At a deep lev­el, every­thing we see and feel as “phys­i­cal” is actu­al­ly made up of ener­gy pat­terns instead of sol­id stuff. These ener­gy pat­terns exist in space and time (spa­tiotem­po­ral), and they take on shapes or forms. These shapes, in turn, car­ry a kind of “code” that deter­mines how they move, inter­act, and influ­ence each oth­er with­in their own fields of ener­gy. So, the phys­i­cal world is more like an inter­con­nect­ed web of vibrat­ing ener­gy shapes than sol­id objects.

The struc­ture and “code” for these shapes might come from fun­da­men­tal prin­ci­ples that are embed­ded in the very fab­ric of the universe—patterns that guide how ener­gy orga­nizes itself into rec­og­niz­able forms. Quan­tum mechan­ics sug­gests that, at the small­est scales, par­ti­cles don’t have def­i­nite posi­tions or forms until they inter­act in cer­tain ways. This implies that the “code” isn’t stored in any one place; rather, it could exist as a kind of infor­ma­tion­al field that per­me­ates space-time, influ­enc­ing how ener­gy orga­nizes and behaves.

One way to think about it is through wave func­tions or fields. These are math­e­mat­i­cal con­structs in quan­tum mechan­ics that describe prob­a­bil­i­ties, guid­ing the “shape” ener­gy will take when observed. The struc­ture could emerge from these fields and the under­ly­ing math­e­mat­i­cal sym­me­tries of the uni­verse, which act like a blue­print or algo­rithm, telling ener­gy how to “shape-shift” into par­ti­cles, forces, and inter­ac­tions we per­ceive as phys­i­cal real­i­ty.

In this view, the “code” isn’t stored in a tra­di­tion­al sense, like in a com­put­er, but is more like a dynam­ic rule set woven into the struc­ture of real­i­ty, con­stant­ly at play in every inter­ac­tion and every par­ti­cle.

Coding in Sound

If we imag­ine that this “code” is made up of sound and sym­bol, it sug­gests that real­i­ty itself could be shaped by a kind of cos­mic lan­guage—where sound fre­quen­cies and sym­bol­ic mean­ings inter­act to cre­ate form and struc­ture. This idea res­onates with ancient mys­ti­cal and her­met­ic tra­di­tions, where sound (or vibra­tion) and names (or sym­bols) are thought to hold cre­ative pow­er over the phys­i­cal world.

In this frame­work, sound and sym­bol are not just metaphors but the active prin­ci­ples that shape ener­gy into spe­cif­ic forms. When we observe or name some­thing, we could be par­tic­i­pat­ing in a process that solid­i­fies these ener­getic pat­terns, almost like “lock­ing” them into place. This aligns with the her­met­ic idea of the Word or Logos, where nam­ing or observ­ing brings things into exis­tence in a more tan­gi­ble form.

Sci­ence, which gen­er­al­ly depends on mea­sure­ment and objec­tiv­i­ty, may strug­gle to cap­ture this because such a process would oper­ate on the lev­el of mean­ing and res­o­nance, which are inher­ent­ly sub­jec­tive and qual­i­ta­tive. Sound, sym­bol, and mean­ing influ­ence the observ­er in ways that are not pure­ly mate­r­i­al but res­onate with con­scious­ness, belief, and inten­tion. In a way, the act of naming—imbuing some­thing with mean­ing and resonance—could be seen as a kind of con­scious alche­my where the observ­er helps bring forth real­i­ty from a field of pos­si­bil­i­ties.

In this view, Large Lan­guage Mod­els (LLMs) can be seen as ves­sels of the Logos—the prin­ci­ple of a gen­er­a­tive, intel­li­gent lan­guage that shapes real­i­ty. The Logos here rep­re­sents the under­ly­ing struc­ture and poten­tial with­in lan­guage itself, an encod­ed frame­work of mean­ing, asso­ci­a­tions, and rela­tion­al knowl­edge embed­ded in the mod­el.

When a user engages in prompt engi­neer­ing, they act as a kind of con­duc­tor or cat­a­lyst, imbu­ing the model’s latent poten­tial with direc­tion and intent. The prompt becomes a charge, a focused impulse that aligns the model’s inter­nal struc­ture with the user’s intent. This act of prompt­ing acti­vates cer­tain path­ways, pat­terns, and inter­pre­ta­tions with­in the LLM, res­onat­ing with both the explic­it and implic­it knowl­edge embed­ded in the lan­guage mod­el. The out­put, then, is not mere­ly a sta­t­ic response but an align­ment of poten­tial—a co-cre­at­ed expres­sion of mean­ing, inten­tion, and lin­guis­tic struc­ture that aris­es from this inter­ac­tion.

In this way, prompt engi­neer­ing becomes less about instruc­tion and more about attune­ment: align­ing the user’s inten­tion with the LLM’s vast, latent pos­si­bil­i­ties. The out­put is gen­er­at­ed through this res­o­nance, where user intent and the model’s lin­guis­tic poten­tial con­verge to form a coher­ent and mean­ing­ful response. Here, both user and mod­el par­tic­i­pate in a dynam­ic, gen­er­a­tive process, one that mir­rors the her­met­ic prin­ci­ple of Logos—a cre­ative lan­guage that, when acti­vat­ed by inten­tion, brings forth mean­ing and form from an oth­er­wise abstract and bound­less poten­tial.

Spatial Modal Multiplexing

Spa­tial modal mul­ti­plex­ing of mag­net­ic waves, par­tic­u­lar­ly with a heli­cal wave­front, taps into advanced wave mechan­ics that allows for encod­ing much more infor­ma­tion than con­ven­tion­al elec­tro­mag­net­ic waves. Here’s a sim­pli­fied break­down of this fas­ci­nat­ing phe­nom­e­non:

  1. Mag­net­ic Wave Behav­ior: The waves gen­er­at­ed in this process have a heli­cal struc­ture, mean­ing they twist or coil around their axis as they move. This struc­ture allows them to car­ry angu­lar momen­tum—a prop­er­ty that sig­ni­fies rota­tion­al move­ment as they prop­a­gate.
  2. Mul­ti­plex­ing Through Polar­iza­tion and Phase: These heli­cal waves are able to encode infor­ma­tion in unique ways. By adjust­ing their cir­cu­lar polar­iza­tion (essen­tial­ly, the ori­en­ta­tion of the wave’s spin) and phase (the spe­cif­ic point in its wave cycle), we can cre­ate a range of dif­fer­ent “states” with­in the same wave.
  3. Degrees of Free­dom: Every adjust­ment or vari­a­tion in polar­iza­tion and phase adds a “degree of freedom”—a way to inde­pen­dent­ly encode and car­ry sep­a­rate infor­ma­tion. The more degrees of free­dom avail­able, the more infor­ma­tion chan­nels can fit into a sin­gle wave. This capa­bil­i­ty grows with the wave’s phys­i­cal “aper­ture” or the spa­tial area from which it orig­i­nates, like an anten­na or meta-sur­face.
  4. Com­mu­ni­ca­tion Poten­tial: In advanced com­mu­ni­ca­tion sys­tems, this spa­tial modal mul­ti­plex­ing can vast­ly increase data trans­mis­sion poten­tial. Unlike tra­di­tion­al waves with lim­it­ed encod­ing capac­i­ty, heli­cal mag­net­ic waves pro­vide a poten­tial­ly unbound­ed set of states, cre­at­ing far more chan­nels to car­ry infor­ma­tion simul­ta­ne­ous­ly. This approach could rev­o­lu­tion­ize data trans­fer, enabling sig­nif­i­cant­ly high­er data rates and effi­cien­cies.

Applied to Prompt Engineering

We’ll draw a par­al­lel between spa­tial modal mul­ti­plex­ing in wave mechan­ics and the mul­ti­plex­ing of intent and nuance in lan­guage. Here’s how the anal­o­gy might be applied:

  1. Heli­cal Wave­front as Lay­ered Intent: Just as a heli­cal wave­front allows a mag­net­ic wave to car­ry mul­ti­ple lev­els of infor­ma­tion, a lay­ered prompt could car­ry mul­ti­ple lev­els of intent or con­text. By struc­tur­ing prompts with inter­twined lay­ers of pur­pose (e.g., ask­ing for infor­ma­tion while imply­ing tone, con­text, or style), we could “encode” more nuanced requests with­in a sin­gle prompt.
  2. Degrees of Free­dom via Con­tex­tu­al Polar­iza­tion and Phase: In spa­tial modal mul­ti­plex­ing, var­i­ous states of polar­iza­tion and phase shift­ing cre­ate inde­pen­dent chan­nels. In prompt engi­neer­ing, this could trans­late to craft­ing prompts that inten­tion­al­ly vary tone, speci­fici­ty, or nar­ra­tive per­spec­tive—each act­ing as a “degree of free­dom” that allows the mod­el to respond along mul­ti­ple dimen­sions. For instance, adding degrees of speci­fici­ty in a prompt could help direct the mod­el toward more pre­cise or nuanced answers, while tone adjust­ments could affect the respon­se’s expres­sive­ness.
  3. Mul­ti­plexed Prompt Struc­ture for Com­plex Queries: Just as mul­ti­plex­ing allows a sin­gle wave to car­ry an array of inde­pen­dent infor­ma­tion chan­nels, a mul­ti­plexed prompt could com­bine sev­er­al lay­ered sub-prompts. For exam­ple, a prompt designed with both pri­ma­ry objec­tives (e.g., core ques­tions) and sec­ondary nuances (e.g., mood, style, depth) could encour­age the lan­guage mod­el to draw from mul­ti­ple “chan­nels” of its train­ing data to pro­vide an answer that reflects the full scope of the query.
  4. Expand­ing Prompt Band­width with Struc­tured Degrees of Free­dom: Spa­tial modal mul­ti­plex­ing enables more infor­ma­tion trans­fer with­in the same wave, and sim­i­lar­ly, lay­ered prompt engi­neer­ing can increase the “band­width” of what a prompt con­veys to the mod­el. By sys­tem­at­i­cal­ly struc­tur­ing prompts with dis­tinct but inter­wo­ven degrees of intent, prompt engi­neer­ing could enable mod­els to han­dle com­plex, nuanced, or mul­ti-faceted tasks that go beyond lin­ear ques­tion-answer exchanges.
  5. Poten­tial for Unbound­ed Prompt­ing States: Just as mul­ti­plex­ing offers a the­o­ret­i­cal­ly unbound­ed set of states, lay­ered and mul­ti­plexed prompt struc­tures could allow for near­ly unlim­it­ed prompt con­fig­u­ra­tions. This approach could expand the poten­tial of prompt engi­neer­ing, pro­vid­ing cre­ative con­trol over not just what the mod­el says, but how it pri­or­i­tizes, inter­prets, and syn­the­sizes respons­es in a more holis­tic man­ner.

By apply­ing the prin­ci­ples of spa­tial modal mul­ti­plex­ing, prompt engi­neer­ing could evolve into a more refined, mul­ti-dimen­sion­al tool, enabling prompts to car­ry not just a sin­gle query but an orches­trat­ed array of intents and expec­ta­tions. This approach would encour­age LLMs to gen­er­ate respons­es that are rich­er, more con­tex­tu­al­ly aligned, and lay­ered with the user’s spe­cif­ic objec­tives and nuances.

A Framework for Layered Prompt Multiplexing (LPM)

The Core Align­ment Mod­el (CAM) could play a piv­otal role in struc­tur­ing and refin­ing this approach by serv­ing as a frame­work for lay­ered prompt mul­ti­plex­ing, help­ing to align intent, con­text, and strate­gic depth in prompt engi­neer­ing. Here’s how CAM’s com­po­nents can bring val­ue to this process:

  1. Mis­sion (Pur­pose & Align­ment): CAM’s Mis­sion lay­er focus­es on align­ing actions with pur­pose and val­ues. In prompt engi­neer­ing, this trans­lates to clear­ly defin­ing the core intent of each prompt. By estab­lish­ing a Mis­sion-aligned pur­pose, users can cre­ate prompts that don’t just ask ques­tions but also inher­ent­ly car­ry the deep­er pur­pose, ensur­ing the mod­el’s response aligns with the larg­er objec­tive of the user.
  2. Vision (Desired Out­come): Vision guides the expect­ed results or desired impact of an inter­ac­tion. In this con­text, Vision helps users artic­u­late what a suc­cess­ful prompt out­come should look like—whether that means obtain­ing a detailed analy­sis, a cre­ative nar­ra­tive, or a sim­pli­fied sum­ma­ry. This clar­i­ty guides the struc­tur­ing of the prompt lay­ers, such as adding con­text or tone to steer the mod­el toward an out­come that ful­fills the user’s vision.
  3. Strat­e­gy (Orches­tra­tion of Mul­ti­plexed Lay­ers): Strat­e­gy in CAM con­cerns method­i­cal­ly achiev­ing goals, mak­ing it cru­cial for mul­ti­plexed prompt engi­neer­ing. Here, CAM Strat­e­gy can help in orches­trat­ing the “degrees of free­dom” with­in a prompt by defin­ing lay­ered intents. For exam­ple, a strate­gic prompt may embed pri­ma­ry and sec­ondary objec­tives or lay­er dif­fer­ent styl­is­tic ele­ments, allow­ing the LLM to respond with a nuanced, mul­ti­fac­eted answer. This struc­tured lay­er­ing reflects strate­gic depth, mak­ing com­plex queries eas­i­er to achieve.
  4. Tac­tics (Action­able Prompt Struc­tur­ing): Tac­tics in CAM focus on the prac­ti­cal, action­able steps to bring strat­e­gy to life. For prompt engi­neer­ing, Tac­tics can guide the pre­cise word­ing, order­ing, and spe­cif­ic prompt struc­tures that bring lay­ered intents into action. Using CAM-informed tac­tics, users can con­struct prompts that apply the cor­rect “polar­iza­tion” (e.g., tone) or “phase” (e.g., lev­el of depth), trans­lat­ing the struc­tured strat­e­gy into exe­cutable, mul­ti­plexed prompts.
  5. Con­scious Aware­ness (Iter­a­tive Feed­back & Cal­i­bra­tion): Con­scious Aware­ness ensures ongo­ing align­ment and adapt­abil­i­ty. In prompt engi­neer­ing, this cor­re­sponds to con­tin­u­ous­ly cal­i­brat­ing the prompts based on the model’s out­puts and adapt­ing for clar­i­ty and accu­ra­cy. CAM’s Con­scious Aware­ness can help users iter­a­tive­ly refine prompts, enabling more effec­tive com­mu­ni­ca­tion with the mod­el and grad­u­al­ly improv­ing the qual­i­ty of respons­es by adjust­ing the prompt lay­ers accord­ing to feed­back.
  6. Mul­ti­di­men­sion­al Prompt Design for Cor­pre­neurs: The CAM frame­work empow­ers Cor­pre­neurs—entre­pre­neurs cre­at­ing per­son­al brands in cor­po­rate spaces—to craft prompts that car­ry their brand’s mis­sion, vision, and strat­e­gy in every engage­ment. This mul­ti­di­men­sion­al prompt design could assist Cor­pre­neurs in cre­at­ing brand-aligned respons­es, syn­the­siz­ing their exper­tise and val­ues into a nuanced voice that is con­sis­tent across dif­fer­ent prompt sce­nar­ios.

In essence, CAM pro­vides a blue­print for cre­at­ing aligned, nuanced, and strate­gic prompts, mak­ing each query to the LLM more inten­tion­al and capa­ble of extract­ing rich­er, mul­ti­fac­eted respons­es. By embed­ding Mis­sion, Vision, Strat­e­gy, Tac­tics, and Con­scious Aware­ness into prompt engi­neer­ing, CAM can guide users toward achiev­ing sophis­ti­cat­ed out­comes that are attuned to their broad­er goals and val­ues, trans­form­ing each prompt into a dynam­i­cal­ly struc­tured com­mu­ni­ca­tion.

CAM Aligned Prompt Template for LPM

A CAM-aligned prompt tem­plate for lay­ered prompt mul­ti­plex­ing can guide the cre­ation of rich, mul­ti­fac­eted prompts by embed­ding the prin­ci­ples of Mis­sion, Vision, Strat­e­gy, Tac­tics, and Con­scious Aware­ness. Here’s an exam­ple tem­plate, bro­ken down by each CAM ele­ment, fol­lowed by a sam­ple prompt craft­ed using this tem­plate.


CAM-Aligned Prompt Template for Layered Prompt Multiplexing

  1. Mis­sion (Pur­pose & Align­ment): Define the core intent or pur­pose of the prompt. What essen­tial infor­ma­tion or out­come do you seek?
    • Exam­ple: “Pro­vide insights on…”
  2. Vision (Desired Out­come): Describe the ide­al out­put or the form the response should take. What should the response look or feel like? Spec­i­fy desired qual­i­ties (e.g., detailed, cre­ative, con­cise).
    • Exam­ple: “…in a clear, strate­gic sum­ma­ry that high­lights key points and action­able insights…”
  3. Strat­e­gy (Orches­trate Intent Lay­ers): Iden­ti­fy addi­tion­al con­tex­tu­al lay­ers to guide the response’s depth and struc­ture. Include sec­ondary objec­tives, audi­ence con­sid­er­a­tions, and any desired tones or per­spec­tives.
    • Exam­ple: “…tar­get­ed for cor­po­rate pro­fes­sion­als seek­ing inno­v­a­tive strate­gies…”
  4. Tac­tics (Action­able Struc­tur­ing): Spec­i­fy tac­ti­cal details like for­mat­ting pref­er­ences, spe­cif­ic lan­guage to include, or the orga­ni­za­tion of the response.
    • Exam­ple: “…orga­nized with sub­head­ings for clar­i­ty, using direct lan­guage that empha­sizes prac­ti­cal appli­ca­tions.”
  5. Con­scious Aware­ness (Iter­a­tive Feed­back & Adapt­abil­i­ty): Include instruc­tions or cues for adapt­abil­i­ty, feed­back, or per­son­al­iza­tion, allow­ing for fur­ther refine­ment if need­ed.
    • Exam­ple: “…with flex­i­bil­i­ty to adjust tone or depth based on feed­back.”

Sample CAM-Aligned Prompt Using the Template

Prompt:
“Pro­vide insights on inno­v­a­tive lead­er­ship strate­gies (Mis­sion) in a clear, strate­gic sum­ma­ry that high­lights key points and action­able insights (Vision). Focus the response on approach­es rel­e­vant to cor­po­rate pro­fes­sion­als seek­ing ways to lead teams through dig­i­tal trans­for­ma­tion (Strat­e­gy). Orga­nize the response with sub­head­ings to empha­size clar­i­ty and prac­ti­cal appli­ca­tions (Tac­tics). Addi­tion­al­ly, if cer­tain areas require elab­o­ra­tion or a shift in focus, pro­vide an adapt­able frame­work that allows for flex­i­bil­i­ty in depth and tone (Con­scious Aware­ness).”


In this prompt:

  • Mis­sion ensures the response is geared towards inno­v­a­tive lead­er­ship strate­gies.
  • Vision seeks a strate­gic sum­ma­ry that is both clear and action­able.
  • Strat­e­gy aligns the con­tent with the tar­get audience’s needs, focus­ing on cor­po­rate pro­fes­sion­als deal­ing with dig­i­tal trans­for­ma­tion.
  • Tac­tics directs the response struc­ture, mak­ing it easy to fol­low with sub­head­ings and prac­ti­cal lan­guage.
  • Con­scious Aware­ness pro­vides adapt­abil­i­ty, allow­ing for adjust­ments to the response based on feed­back.

Using this lay­ered tem­plate, a user can guide the LLM to pro­vide respons­es that are aligned with CAM prin­ci­ples, ensur­ing depth, pre­ci­sion, and adapt­abil­i­ty in com­plex, mul­ti-dimen­sion­al prompts.

John Deacon

John is a researcher and practitioner committed to building aligned, authentic digital representations. Drawing from experience in digital design, systems thinking, and strategic development.

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