PodQuery
PodQuery — Herramienta de auditoría clínica para Claude Desktop
Conecta tus datos de diabetes de Glooko / Omnipod 5 directamente a Claude y deja que haga el análisis.
[!IMPORTANT] No es consejo médico. Esta herramienta sirve para entender tus datos y ayudarte a hacer mejores preguntas a tu equipo de atención de la diabetes. No es un dispositivo médico y nunca debe utilizarse para realizar cambios en tu terapia. Consulta el descargo de responsabilidad.
[!NOTE] Esta es la edición MCPB (MCP Bundle), creada exclusivamente para Claude Desktop. Sustituye a la versión anterior de este proyecto basada en Docker (que también era compatible con Open WebUI y una API web sin procesar) por un único archivo
.mcpbque se instala con un clic: sin Docker, sin terminal y sin editar archivos de configuración a mano. Si necesitas la versión Docker multiplataforma, consulta la aplicación web original o una etiqueta anterior de este repositorio.
[!NOTE] Prueba de concepto inicial (v0.2.1). PodQuery está en desarrollo activo. Las herramientas principales y el canal de datos funcionan de principio a fin (detrás del conjunto de datos de muestra incluido están mis propios datos reales), pero las interfaces, los valores predeterminados y el comportamiento de las herramientas pueden cambiar entre versiones. Los comentarios y las incidencias son muy bienvenidos.
[!TIP] ¿Alérgico a las instrucciones? Deja que una IA hable por ti. 🤖 Pega este prompt de configuración conversacional en cualquier asistente de IA y te guiará paso a paso en la instalación y configuración de la extensión a tu propio ritmo.
📖 Índice de contenidos
Related MCP server: Diabetes:M MCP Server
🌟 ¿Qué es PodQuery?
PodQuery es un puente entre tus datos de diabetes y Claude. Se empaqueta como un MCPB (MCP Bundle), el formato de extensión local de un clic de Claude Desktop, por lo que instalarlo es un simple doble clic y no hay ningún servidor, contenedor o archivo de configuración separado que gestionar. Nada de copiar y pegar datos entre un sitio web y una IA, y sin costes de API.
Simplemente hablas con Claude. Haz una pregunta en lenguaje natural y Claude accede a tus datos a través de las herramientas que proporciona esta extensión, extrae exactamente lo que necesita y lo analiza por ti, todo dentro de la conversación.
Puedes preguntar cosas como:
«¿Cómo estuvo mi tiempo en rango el mes pasado?»
«¿Por qué sigo teniendo picos altos por las noches?»
«Muéstrame mi peor día y dime qué pasó.»
🚀 ¿Qué hace exactamente?
PodQuery expone tu historial de diabetes como un conjunto de herramientas analíticas que Claude puede llamar:
Resúmenes y tendencias: tiempo en rango, GMI, variabilidad, mejores y peores días y horas, equilibrio basal/bolo, durante cualquier período que preguntes.
Datos CGM de alta fidelidad: se captura cada lectura de 5 minutos, por lo que no se pierde ningún pico o caída, pero se guía a Claude para que obtenga primero los agregados y solo recupere las lecturas sin procesar cuando realmente las necesite.
Gráficos visuales listos para usar: un gráfico de glucosa con estilo de informe clínico, que se abre directamente en tu navegador, con marcadores de bolo interactivos y un desglose por día, no solo números en una tabla.
Análisis de bolo enriquecido: cada bolo se compara con la glucosa en ese momento y con la configuración de la bomba activa (ISF, ratio de carbohidratos, objetivo), para que Claude pueda juzgar si una dosis tenía sentido.
Comportamiento de Omnipod 5: cuándo el algoritmo estaba suspendiendo, funcionando al máximo o funcionando a ciegas tras perder la señal.
Claude hace todo esto por sí mismo, en vivo, llamando a estas herramientas mientras habla contigo.
El momento «¡Ajá!»
Este proyecto nació de una frustración personal. Al intentar integrar mis datos de diabetes en un panel de Home Assistant, descubrí que la gran cantidad de datos históricos almacenados en Glooko (especialmente del Omnipod 5) es una mina de oro. Me di cuenta de que si le daba esos datos a un asistente de IA y le permitía consultarlos directamente, podría descubrir patrones que meses de registro manual nunca mostraron.
Por qué lo construí
Lo construí para devolver el poder a las manos del paciente. A menudo solo tenemos 15 minutos con un especialista cada pocos meses. Esta herramienta te permite:
Sé proactivo: detecta tendencias antes de tu próxima cita.
Sé privado: tus datos y credenciales permanecen en tu propia máquina.
Sé inmediato: un clic para instalar, sin infraestructura que ejecutar.
👤 Para quién es
Este proyecto está pensado para personas que usan el sistema híbrido de asa cerrada de administración de insulina Omnipod 5 y sincronizan sus datos con Glooko. Si ese no es tu caso, igualmente puedes explorar el proyecto con los tres meses de datos de muestra integrados (mis datos); no se requiere cuenta de Omnipod 5 ni de Glooko para esa vía.
Requisitos previos
Claude Desktop — descarga gratuita desde claude.ai/download. Esta extensión solo funciona dentro de Claude Desktop (macOS o Windows); no es un servidor independiente y no funciona con Claude en web o móvil.
Para analizar tus propios datos: un Omnipod 5 y una cuenta de Glooko con los datos sincronizados. No es necesario para probar la herramienta con el conjunto de datos de muestra.
Nada más. Sin Docker, sin instalación de Node.js, sin terminal.
🔒 Privacidad y seguridad: tus datos, tu control
Como esto implica credenciales y datos médicos sensibles, está diseñado con una arquitectura «local-first».
Sin intermediarios: tu nombre de usuario y contraseña de Glooko nunca salen de tu máquina. Se envían directamente desde esta extensión a los servidores de Glooko. Ningún servidor de terceros, ni siquiera Anthropic, los ve jamás.
Se ejecuta en tu ordenador: el proceso de la extensión, la base de datos local y las herramientas de análisis se ejecutan dentro de Claude Desktop, íntegramente en tu máquina.
Tus credenciales se almacenan en el almacenamiento seguro de ajustes de Claude Desktop (el campo de contraseña está marcado como sensible en la configuración de la extensión), no en un archivo de texto plano.
[!IMPORTANT] Dado que estás hablando con Claude (una IA en la nube) sobre estos datos, la mayoría de los proveedores tienen un ajuste que les permite «entrenar» con tus conversaciones. Antes de hablar de tus datos clínicos, plantéate desactivar el historial de chat / el entrenamiento del modelo en los ajustes de privacidad de Claude, para que tu historial médico siga siendo privado.
[!TIP] ¿Quieres probarlo antes de conectar tu propia cuenta? Esta extensión incluye una pequeña base de datos de muestra integrada con datos reales (tres meses, los míos) para que puedas explorarlo todo sin conexión, sin iniciar sesión en Glooko y sin acceso a la red, desde el momento en que la instalas.
🧐 La persona de IA de «amor duro»
La herramienta incluye una persona de IA integrada: un endocrinólogo de «amor duro».
Gestionar la diabetes tipo 1 es difícil, y complacer al usuario no mejora el tiempo en rango. La persona es directa, analítica e intransigente. No endulzará los datos; te dirá dónde falla la sincronización de tus bolos, dónde estás sobrecorrigiendo o dónde tu basal no logra frenar una deriva. También está diseñada para trabajar de forma eficiente, obteniendo primero los resúmenes y solo profundizando en los datos granulares cuando lo necesita.
Una vez instalada, esta persona está disponible como un prompt seleccionable llamado «Clinical auditor persona» en el menú de prompts/adjuntos de Claude. Seleccionarla es lo que convierte a Claude en el endocrinólogo.
Su franqueza es un estilo deliberado, no una autoridad. Todo lo que dice es para ayudarte a entender lo que está sucediendo y a hacer mejores preguntas a tu equipo de atención de la diabetes. No te dice, ni debe decirte, que cambies ajustes como tu DIA o tus ratios de carbohidratos. Cualquier cambio en tu terapia es una conversación entre tú y tu profesional sanitario.
🛠️ Instalación de la extensión
Descarga el archivo
.mcpbdesde la página de versiones de este repositorio (o créalo tú mismo; consulta Crear el .mcpb tú mismo).Instálalo mediante cualquiera de estas opciones (todas equivalentes):
Haz doble clic en el archivo
.mcpbdescargado.Arrastra y suelta el archivo
.mcpben la ventana de Claude Desktop.En Claude Desktop: Ajustes → Extensiones → Ajustes avanzados → Instalar extensión… y, a continuación, selecciona el archivo
.mcpb.
Claude Desktop muestra una pantalla de instalación con lo que la extensión puede hacer y los permisos que necesita. Revísala y confirma.
A continuación, llegarás a la pantalla de ajustes de la extensión; consulta Configuración de tus ajustes más abajo. También puedes volver a ella más tarde desde Ajustes → Extensiones → PodQuery.
Eso es todo: no hay ningún paso de compilación separado, ningún contenedor que iniciar y nada que mantener en ejecución en una terminal. Claude Desktop inicia el proceso de la extensión bajo demanda y lo detiene cuando no es necesario.
[!NOTE] El texto exacto de los menús en Claude Desktop puede cambiar entre versiones. Si algo no coincide exactamente, busca el equivalente más cercano (un área de «Extensiones» o «Conectores» en Ajustes es el lugar adecuado en cualquier caso).
⚙️ Configuración de tus ajustes
Claude Desktop genera automáticamente un formulario de ajustes para esta extensión; no hay ningún archivo .env que crear o editar a mano. La mayoría de los campos llegan prellenados con valores predeterminados sensatos y marcados como obligatorios, por lo que el formulario no se puede guardar vacío; puedes aceptar los valores predeterminados tal cual y empezar a usar la extensión de inmediato con los datos de muestra incluidos, o ajustar cualquiera de ellos para que coincida con tu propia configuración. Solo el correo electrónico y la contraseña de Glooko son opcionales: deja ambos en blanco para permanecer en el modo sin conexión con datos de muestra.
Configuración | Qué hace |
Correo electrónico de Glooko / Contraseña de Glooko | Tu inicio de sesión de Glooko. Los únicos dos campos opcionales. Deja ambos en blanco para ejecutar en modo sin conexión con el conjunto de datos de muestra integrado de 3 meses: no se necesita cuenta y nunca se contacta con Glooko. Rellena ambos para descargar y mantener tus propios datos al día. El campo de contraseña está enmascarado y se almacena de forma segura mediante Claude Desktop. |
Unidad de glucosa de la cuenta de Glooko | La unidad en la que tu cuenta de Glooko entrega los datos ( |
Unidad de visualización | Cómo quieres ver la glucosa: |
Límite bajo (hipo) / Límite alto (hiper) | Tu rango objetivo, en la unidad de visualización anterior. Los valores predeterminados son 3.9 / 10.0, que son valores en mmol/L. Todas las herramientas usan estos valores por defecto; tú (o Claude) aún pueden consultar un umbral puntual diferente sin cambiar esto. |
Historial a cargar en la primera ejecución | Solo se usa una vez que se ha configurado un inicio de sesión de Glooko (se ignora en el modo de datos de muestra). El valor predeterminado es |
Carpeta de datos | Dónde la extensión guarda su base de datos local de los datos descargados. El valor predeterminado es tu carpeta Documentos (se crea automáticamente una pequeña subcarpeta |
[!WARNING] Si configuras la unidad de visualización en
mgdl, actualiza también los límites bajo/alto. Sus valores predeterminados son3.9/10.0, que son valores en mmol/L, y no se convierten automáticamente al cambiar de unidad. Para mg/dL, el rango objetivo equivalente suele estar alrededor de70/180— ajústalo a lo que tu equipo médico haya establecido para ti.
Probarlo con los datos de muestra (sin cuenta de Glooko)
Simplemente deja en blanco el correo electrónico y la contraseña de Glooko y guarda; el resto de los campos pueden mantener sus valores predeterminados. La extensión sirve la base de datos de muestra integrada de 3 meses (los datos reales del propio autor, compartidos a propósito) y nunca contacta con Glooko ni con la red.
Usar tus propios datos de Glooko
Rellena tu correo electrónico y contraseña de Glooko, configura la unidad de glucosa de la cuenta de Glooko para que coincida con tu cuenta real de Glooko, y establece tu unidad de visualización y rango objetivo preferidos. Tu primera pregunta posteriormente activa una descarga única de tu historial (desde unos segundos hasta aproximadamente un minuto, dependiendo de lo atrás que le pidas que vaya); después, los datos se almacenan localmente y las respuestas son rápidas.
💬 Cómo usarlo
Inicia un chat en Claude Desktop.
Asegúrate de que la extensión/conector PodQuery esté habilitada para la conversación (Claude Desktop muestra las extensiones instaladas en su selector de herramientas/conectores).
Desde el menú de indicaciones, selecciona el prompt "Clinical auditor persona" para la experiencia completa de auditoría con mano dura — o simplemente haz una pregunta directamente; las herramientas funcionan de cualquier manera.
Pregunta lo que quieras. Una buena primera pregunta:
"Cuéntame sobre mis datos de diabetes."
Claude obtiene los datos y da su interpretación. Luego puedes discutir los hallazgos, hacer preguntas de seguimiento, profundizar en un día o excursión específicos, o pedir un gráfico: PodQuery abre un gráfico de glucosa real e interactivo directamente en tu navegador, en lugar de limitarse a describir números.
🔁 Cambiar de los datos de muestra a los tuyos
Si empezaste con los datos de muestra y ahora quieres conectar tu cuenta real de Glooko:
Abre Configuración → Extensiones → PodQuery.
Rellena tu correo electrónico de Glooko y contraseña de Glooko, y configura los demás campos para que coincidan contigo (consulta Configuración de tus ajustes).
Elimina la base de datos existente para que los datos de muestra no se mezclen con los tuyos: abre la carpeta de datos que configuraste (o su valor predeterminado, tu carpeta Documentos) y elimina la subcarpeta
PodQueryque hay dentro.Haz una pregunta. La extensión descarga tu propio historial en un archivo nuevo en esa primera consulta.
🛠️ Solución de problemas
[!NOTE] Esta sección crecerá con el tiempo. Si te encuentras con algo no cubierto aquí, abre un issue y te ayudaré.
Las herramientas de la extensión no aparecen en un chat. Comprueba que la extensión PodQuery esté habilitada para la conversación actual en el selector de herramientas/conectores de Claude Desktop, y que siga habilitada en Configuración → Extensiones.
Pregunté por una fecha y no obtuve nada.
Si estás ejecutando contra los datos de muestra (campos de Glooko en blanco), solo está disponible su rango de fechas. Pregunta primero a Claude qué rango de fechas contiene, o pide get_diabetes_summary en una ventana muy amplia y lee reportRange.
Parece que Claude sigue con el comportamiento antiguo después de actualizar la extensión.
Reinstala el .mcpb más reciente (Claude Desktop ofrecerá actualizarlo en el sitio); si persiste una respuesta obsoleta, inicia una conversación nueva para que se vuelvan a leer las descripciones de las herramientas.
La extensión no arranca / muestra un error. Abre Configuración → Extensiones → PodQuery y comprueba que las credenciales de Glooko configuradas sean correctas (o ambas en blanco para el modo sin conexión), y que la carpeta de datos configurada sea una ubicación en la que Claude Desktop pueda escribir.
Números de glucosa que parecen incorrectos después de conectar mi propia cuenta. Vuelve a comprobar que la «unidad de glucosa de la cuenta de Glooko» coincide con la configuración de tu cuenta real de Glooko, no con lo que prefieras ver (ese es el campo separado «unidad de visualización»). Un desajuste aquí corrompe la interpretación de las lecturas entrantes; si ya tienes datos ingeridos con la configuración incorrecta, borra la base de datos (consulta Cambiar de los datos de muestra a los tuyos) y deja que se vuelva a descargar correctamente.
Mis límites bajo/alto parecen incorrectos después de cambiar a mg/dL. Los campos de límite bajo/alto no se convierten automáticamente al cambiar la unidad de visualización: consulta la advertencia en Configuración de tus ajustes. Actualízalos manualmente para que coincidan con tu unidad.
Un gráfico no se abrió en mi navegador. PodQuery intenta abrir automáticamente el archivo del gráfico en el navegador predeterminado de tu sistema operativo; si eso falla (no hay un comando de navegador predeterminado reconocido en tu máquina), Claude te indicará la ruta del archivo en su lugar: ábrelo manualmente. Esto es poco frecuente y normalmente solo afecta a configuraciones de sistema inusuales.
📬 Ponte en contacto
Ya sea que estés atascado con la instalación o quieras compartir cómo la auditoría mejoró tu tiempo en rango, estaré encantado de ayudarte.
Ayuda técnica
Si algo no funciona, por favor abre un issue para que otros también puedan beneficiarse de la solución.
Personal y profesional
[!NOTE] Recordatorio de privacidad: si me envías una captura de pantalla para soporte, por favor difumina cualquier información médica privada o credenciales de Glooko antes.
🔌 Referencia de herramientas
Estas son las herramientas MCP que esta extensión registra con Claude. Nunca las llamas directamente (Claude las llama por ti mientras chateas), pero esto es útil si quieres entender exactamente qué puede ver Claude (y qué no), o por qué hizo una pregunta de seguimiento concreta.
Una nota sobre las marcas de tiempo
Todas las marcas de tiempo que usan estas herramientas son hora de reloj simple formateada como ISO 8601, p. ej. 2026-01-01T00:00:00.000Z — a pesar de la "Z" final, NO son UTC reales. Glooko registra solo la fecha/hora literal que mostró tu dispositivo en el momento de cada lectura, sin zona horaria ni desplazamiento adjuntos, por lo que una lectura lleva la marca de dondequiera que estuvieras físicamente cuando ocurrió. Esto significa que nunca ocurre ninguna conversión de zona horaria en ninguna dirección: Claude resuelve tus frases relativas ("ayer", "últimas 3 semanas") directamente en dígitos de hora de reloj coincidentes, y presenta las horas en los resultados exactamente como se devuelven, sin convertir. La única contrapartida: si viajas entre zonas horarias, el archivo no tiene registro de a qué zona pertenece una lectura determinada, por lo que no hay forma de calcular de manera fiable cosas como "hace cuántas horas" a través de un cambio de zona: los datos siguen siendo exactamente lo que mostró tu dispositivo, solo que sin una zona adjunta.
Una nota sobre las unidades de glucosa
La mayoría de las herramientas aceptan parámetros opcionales units, lower y upper. Si Claude los omite, se usan los valores que configuraste en los ajustes de la extensión (unidad de visualización y rango objetivo). Claude solo los pasa para anular los valores predeterminados en una sola pregunta, por ejemplo, para comprobar el tiempo por debajo de un umbral diferente sin cambiar tu objetivo normal.
Herramientas
Herramienta | Propósito |
| El mejor punto de partida para cualquier pregunta de visión general. Agregados de tamaño fijo sobre cualquier ventana, por lo que es económico incluso a lo largo de meses o años. Una llamada deliberadamente amplia es también cómo Claude descubre el rango de fechas completo que contiene tu archivo ( |
| Divide un intervalo en segmentos de tiempo (día/semana/mes/trimestre, o de longitud fija) y calcula cada uno de forma independiente a partir de las lecturas brutas, para preguntas del tipo "cómo han cambiado las cosas mes a mes" en una sola llamada. |
| Lecturas individuales de CGM con marca de tiempo para una ventana, limitadas a 21 días, opcionalmente filtradas a |
| La forma principal de ver un gráfico. Construye un gráfico de glucosa completo con estilo de informe clínico (traza codificada por colores en rango/bajo/alto, banda objetivo sombreada, dispersión mín/máx, marcadores de bolo con información propia al pasar el cursor, estadísticas de cabecera, leyenda, información sobre herramientas), lo guarda en un archivo y lo abre directamente en tu navegador. Acepta una matriz |
| Glucosa reducida a un número objetivo de puntos para su representación, con una banda mín/máx por punto para que no se pierdan los picos, además de marcadores de eventos de bolo. Devuelve datos de gráfico sin procesar en lugar de una página renderizada — se usa cuando Claude necesita crear una visualización personalizada por sí mismo, en lugar del gráfico predefinido que produce |
| Cada bolo en una ventana (limitada a 92 días), enriquecido con el valor de CGM interpolado en el momento de la administración y la ISF/relación de carbohidratos/objetivo/DIA activos en ese momento, además de las diferencias entre lo administrado y lo programado y las anulaciones de la calculadora. Se puede filtrar por clase de bolo. |
| Tiempo en rango y glucosa media agrupados por hora del reloj a lo largo de una ventana — útil para el fenómeno del amanecer, picos nocturnos constantes y otros patrones según la hora del día. |
| Lo que el algoritmo de Omnipod 5 hacía con la administración basal a lo largo del tiempo, como estados de comportamiento ( |
| Los totales de insulina basal/bolo/total por día propios de Glooko, mostrados textualmente, para una tabla día a día o cifras de dosis diaria total. |
| Cada cambio de ajuste de Omnipod 5 vigente durante una ventana: DIA, tasa basal máxima y los perfiles de objetivo/ISF/relación de carbohidratos segmentados por tiempo. |
| Marcas de tiempo de cambio de Pod y de cambio de sensor de CGM — solo contexto, nunca se afirma como causa de una alteración de glucosa cercana. |
| Un análisis centrado en una comida o evento de bolo: 30 minutos antes hasta 3 horas después, con la traza de glucosa y cualquier bolo en esa ventana. |
También hay un prompt de MCP, clinical_auditor («persona de auditor clínico» en la interfaz de Claude) — consulta La persona de IA de «amor duro».
Cómo está organizado el código
(Para desarrolladores que lean el código fuente. Si solo quieres usar la herramienta, puedes ignorar esta sección.)
El flujo de datos: Glooko → sync → store → range → analytics → tools → Claude.
manifest.json— el manifiesto MCPB: lo que Claude Desktop lee para instalar la extensión, qué ajustes pide al usuario y cómo lanzasrc/server.js.src/env.js— sanea las variables de entorno derivadas deuser_configque Claude Desktop inyecta, antes de que cualquier otra cosa las lea. Debe ser la primera importación enserver.js; consulta el comentario de cabecera del propio archivo para ver la peculiaridad específica de Claude Desktop que soluciona.src/server.js— el servidor MCP y las definiciones de las herramientas (lo que Claude Desktop lanza a través de stdio). Envoltorios ligeros alrededor de la analítica.src/analytics.js— el corazón: todas las matemáticas clínicas y el modelado de datos, escritas como funciones puras.src/chartHtml.js— renderiza la página HTML autocontenida queget_chart_htmlescribe en disco: la geometría del gráfico, la codificación por colores, la segmentación por días, los tooltips y el conmutador Cronológico/Superposición viven todos aquí.src/store.js— el archivo SQLite (filas normalizadas, no blobs sin procesar de Glooko), respaldado por sql.js — una compilación de SQLite en WebAssembly puro. Esta opción se eligió deliberadamente frente alnode:sqliteintegrado de Node o a un addon nativo comobetter-sqlite3: como MCPB, este servidor puede lanzarse en macOS o Windows con cualquier runtime de Node que Claude Desktop incluya, sin paso de compilación y sin forma de conocer su versión exacta de antemano. Un motor de WASM puro se comporta de forma idéntica en cualquier lugar donde se ejecute Node. La única contrapartida es que sql.js solo funciona en memoria, por lo questore.jsvuelve a serializar el archivo en disco por sí mismo después de cada lote de escritura, en lugar de depender del diario respaldado por archivos de SQLite.src/paths.js— resuelve dónde se encuentra el archivo (la «carpeta de datos» configurada por el usuario, que por defecto es su carpeta de Documentos) y coloca la base de datos de muestra incluida en su lugar en una instalación nueva sin conexión.src/range.js— la capa a la que llaman las herramientas; responde desde el archivo local y se reabastece desde Glooko solo cuando es necesario. El modo sin conexión se controla aquí.src/sync.js— el motor que introduce los datos de Glooko en el archivo (arranque en frío, recarga, precalentamiento al inicio).src/glooko.js— el cliente de la API de Glooko (autenticación y obtención de datos). Sin cambios respecto al proyecto original — toda la funcionalidad de descarga y almacenamiento de Glooko sigue exactamente igual.src/prompt.js— la persona de auditor clínico.
Algunos invariantes se mantienen en todo el sistema: la glucosa se almacena internamente en una única unidad canónica (mmol/L) y solo se convierte a la salida; el bolo se suma a partir de eventos individuales, mientras que la basal proviene de los totales diarios de Glooko; todas las horas son hora de reloj de pared, no UTC (consulta «Una nota sobre las marcas de tiempo» más arriba); y las tasas por día usan el intervalo real de datos observados.
🏗️ Cómo compilar el .mcpb tú mismo
No necesitas hacer esto para usar la extensión — descarga el .mcpb publicado en su lugar. Esto es para cualquiera que quiera compilar desde el código fuente, auditar el código antes de instalarlo o hacer cambios.
git clone https://github.com/rilhia/podquery-mcp.git
cd podquery-mcp
npm install --omit=dev # installs runtime dependencies, including sql.js, into node_modules
npm install -g @anthropic-ai/mcpb
mcpb pack # produces podquery-mcp.mcpb in this folderEl repositorio también incluye un .mcpbignore que elimina del paquete comprimido el contenido exclusivo del repositorio (documentación, el banner del README de GitHub, variantes de compilación de sql.js sin usar y similares) — no deberías necesitar tocarlo, pero merece la pena echarle un vistazo si sientes curiosidad por saber qué incluye mcpb pack y por qué.
A continuación, instala el archivo .mcpb resultante como se describe en Instalación de la extensión. Consulta la especificación de MCPB para saber cómo funciona el formato del paquete.
📄 Licencia
Este proyecto se publica bajo la Licencia MIT — eres libre de usarlo, modificarlo y distribuirlo, incluso con fines comerciales, siempre que se conserven el aviso de copyright y el texto de la licencia. Consulta el archivo LICENSE para ver el texto completo.
La licencia MIT cubre el código. La base de datos de muestra incluida son datos propios del autor, compartidos para su exploración; por favor, sé considerado en cómo la usas.
Descargo de responsabilidad
Esta herramienta tiene únicamente fines informativos y educativos. No es un dispositivo médico ni sustituye el consejo, diagnóstico o tratamiento médico profesional. Consulte siempre a su médico u otro profesional sanitario cualificado ante cualquier duda sobre una afección médica. Cualquier análisis realizado con la ayuda de esta herramienta, incluidas las sugerencias generadas por IA, debe ser revisado por un profesional clínico cualificado antes de realizar cualquier cambio en su terapia con insulina o en su régimen médico.
Available Tools
12 toolsget_basal_deliveryBasal delivery state timelineA
What the Omnipod 5 was doing with basal over time: delivering normally, pausing it (suspend), running at its ceiling (max), or running blind on a fixed preset because it lost CGM signal (limited).
IMPORTANT: these are STATES describing the algorithm's behaviour, NOT insulin amounts. "suspend" means paused, "max" means at the ceiling; neither is a number of units. (For basal units, use get_daily_insulin.)
Use it to investigate lows (was basal already suspended beforehand?), rebound patterns (max, then suspend, then a low), how hard the system is working, and whether excursions coincided with limited mode (algorithm not adjusting at all).
Times are plain wall clock time (device-local), not UTC. Capped to a generous span since it returns collapsed intervals, not raw points.
Returns: a summary of minutes and percentage per state (normal/suspend/max/limited) and, unless includeIntervals is false, an intervals array (state, start, end, minutes).
| Name | Required | Description | Default |
|---|---|---|---|
| end | Yes | Required. Window end as an ISO 8601 timestamp, e.g. 2026-06-20T00:00:00.000Z — plain wall clock time, same caveat as start (the "Z" is a format artifact, not a UTC claim). Treated as inclusive and must be after start. All timestamps returned by this API are likewise plain wall clock time, unconverted. | |
| start | Yes | Required. Window start as an ISO 8601 timestamp, e.g. 2026-06-19T00:00:00.000Z. IMPORTANT: despite the trailing "Z", this is plain WALL CLOCK time, not true UTC — Glooko records only the literal date/time the patient's device showed, with no timezone attached. Use the patient's own wall-clock digits directly (no conversion): resolve "yesterday" or "last 3 weeks" straight into the matching wall-clock date and time. Treated as inclusive. | |
| includeIntervals | No | Optional (default: true). Whether to include the full interval timeline. Set false to get only the per-state summary totals, which is much smaller over a long span. |
TDQS
Does the description disclose side effects, auth requirements, rate limits, or destructive behavior?
With no annotations, the description carries the full burden and does an excellent job: it explains the meaning of each state, that output is collapsed intervals rather than raw points, that times are device-local wall clock (not UTC), and that results are capped. It even details the conditional intervals array and the summary metrics returned.
Agents need to know what a tool does to the world before calling it. Descriptions should go beyond structured annotations to explain consequences.
Is the description appropriately sized, front-loaded, and free of redundancy?
The description is fairly long but every clause earns its place: state definitions, use cases, the critical units distinction, time semantics, cap rationale, and return shape. The most important semantic warning — states not insulin amounts — is front-loaded.
Shorter descriptions cost fewer tokens and are easier for agents to parse. Every sentence should earn its place.
Given the tool's complexity, does the description cover enough for an agent to succeed on first attempt?
There is no output schema, but the description compensates by stating exactly what the agent will receive: per-state minute/percentage summaries and an optional intervals array with start, end, and minutes. Combined with thorough parameter schema text and timezone clarification, an agent has enough to select and invoke the tool correctly.
Complex tools with many parameters or behaviors need more documentation. Simple tools need less. This dimension scales expectations accordingly.
Does the description clarify parameter syntax, constraints, interactions, or defaults beyond what the schema provides?
Schema coverage is 100%, so the baseline is 3; the description adds a little extra by reiterating the wall-clock caveat and explaining why the time span is capped ('returns collapsed intervals, not raw points'). Most parameter-level detail already lives in the schema, so the added marginal value is moderate, not maximal.
Input schemas describe structure but not intent. Descriptions should explain non-obvious parameter relationships and valid value ranges.
Does the description clearly state what the tool does and how it differs from similar tools?
The description states exactly what the tool returns: a timeline of basal algorithm states (normal/suspend/max/limited), not insulin amounts. It explicitly differentiates from get_daily_insulin, making it easy for an agent to distinguish this from sibling tools.
Agents choose between tools based on descriptions. A clear purpose with a specific verb and resource helps agents select the right tool.
Does the description explain when to use this tool, when not to, or what alternatives exist?
It gives concrete scenarios for using the tool — investigating lows, rebound patterns, system workload, and limited mode coinciding with excursions. It also tells agents when NOT to use it: when they need basal units, use get_daily_insulin instead.
Agents often have multiple tools that could apply. Explicit usage guidance like "use X instead of Y when Z" prevents misuse.
get_chart_htmlOpen a clinical glucose chart in the browserA
Generates a clinical-report-style glucose chart for a window (or several separate windows via ranges) — line trace colour-coded in-range/low/high, a shaded target-range band, a min/max spread band, bolus markers (hoverable in their own right for that bolus's units/ carbs/type, in addition to the aligned CGM reading's own tooltip), a header stat row (time in range, average glucose, time low, time high), a legend, and hover tooltips — saves it to a file, and opens it directly in the patient's default web browser. USE THIS instead of get_chart_series whenever the patient wants to SEE a chart.
Multi-day charts open with a Chronological/Overlay toggle: chronological is the usual continuous timeline; overlay re-plots every calendar day on a shared 0-24h axis (colour-coded per day, with a day legend) so days can be compared directly. Use ranges instead of start/end when the patient wants to compare specific, possibly non-contiguous dates together (e.g. "the 20th, 23rd and 30th") — every requested day gets equal width on the axis regardless of the calendar gap between them. The page also has a day-filter chip per day (in both views) so the patient can hide/show individual days themselves, with the header stats recalculating for whichever days are still visible — you never need a new call just to compare a subset of the days already shown.
The page also includes a "Day details" panel per calendar day (open by default for a single day, collapsed for multiple), with that day's full glucose control (average, GMI, TIR/low/high, std dev, CV), extremes (highest/lowest with times), best/worst hour, insulin (bolus units/count/ avg, basal units, bolus-basal split), bolus type counts, carbs, and the settings in force — the SAME figures get_diabetes_summary would return for that single day, computed by the identical aggregator so the two never disagree. Hiding a day's filter chip hides its detail panel too.
DATA RESOLUTION: a routine call (no resolution/maxPoints given) already plots every single CGM reading with NO smoothing for a typical window (a day, a week, a full month) — the point budget only kicks in on wider windows, where it keeps each bucket's true min/max so no low or high excursion is ever smoothed away, only the moment-to-moment trace between them is thinned. When a call DOES get thinned this way, the result includes a downsample object naming the raw vs plotted reading counts — treat that as an invitation to offer the patient a choice, not as data that has become unavailable: mention it in plain terms ("I plotted a lightly smoothed version of this wide a window — want the full-detail version instead? It may take a little longer to load") and, if they want more detail, re-call with resolution set to how much of the real data to use — 1 for every single reading, 2 for every other one, 3 for every third, and so on. Never decide this smoothing tradeoff silently on the patient's behalf beyond the routine default.
CRITICAL — how to respond after calling this, this is what keeps it fast: this tool does the displaying itself. Do NOT copy, re-type, rebuild, or paste the chart as an artifact/code block/canvas yourself — reproducing a large HTML page as your own output is exactly the slow path this tool exists to avoid, and it is unnecessary work since the browser window is already open by the time you respond. If the JSON result has openAttempted: true, just tell the patient in one short sentence that the chart has opened in their browser — do not describe or restate its contents in detail, do not emit any HTML/code, and treat the tool call as already complete. If openAttempted: false, the auto-open could not be launched from this machine (e.g. no recognised default-browser command) — tell the patient to open the file at the returned filePath themselves; only in that fallback case, or if embedHtml was explicitly requested, does the response also include a full html field. Do NOT reach for a quick/built-in "auto-visualize this data" shortcut either — this tool already produces the real chart.
Times are plain wall clock time (device-local), not UTC.
Returns: ranges (the resolved windows actually used), dayCount, unit, pointCount, bolusCount, filePath (where the page was saved), openAttempted (whether the browser launch was attempted without an immediate error), downsample (only present when the plotted points were thinned from the raw CGM readings — see DATA RESOLUTION above), and — only as a fallback — html.
| Name | Required | Description | Default |
|---|---|---|---|
| end | No | Required. Window end as an ISO 8601 timestamp, e.g. 2026-06-20T00:00:00.000Z — plain wall clock time, same caveat as start (the "Z" is a format artifact, not a UTC claim). Treated as inclusive and must be after start. All timestamps returned by this API are likewise plain wall clock time, unconverted. Omit this (and start) when passing `ranges` instead for several separate windows. | |
| lower | No | Optional. Low (hypo) boundary in the chosen unit; readings below it count as time-low. Omit to use the server default (OMNI_LOWER). Pass only to override for this one call, e.g. to ask about time under a different threshold. | |
| start | No | Required. Window start as an ISO 8601 timestamp, e.g. 2026-06-19T00:00:00.000Z. IMPORTANT: despite the trailing "Z", this is plain WALL CLOCK time, not true UTC — Glooko records only the literal date/time the patient's device showed, with no timezone attached. Use the patient's own wall-clock digits directly (no conversion): resolve "yesterday" or "last 3 weeks" straight into the matching wall-clock date and time. Treated as inclusive. Omit this (and end) when passing `ranges` instead for several separate windows. | |
| units | No | Optional. Glucose unit for this call. Omit to use the unit configured on the server (OMNI_UNITS). One of: "mmol" (mmol/L) or "mgdl" (mg/dL). Pass only to override the configured unit for this one call. | |
| upper | No | Optional. High (hyper) boundary in the chosen unit; readings above it count as time-high. Omit to use the server default (OMNI_UPPER). Pass only to override for this one call. | |
| ranges | No | Optional. Use this INSTEAD OF start/end to show several separate, possibly non-contiguous windows on ONE chart -- e.g. "the 20th, 23rd and 30th of June" is ranges: [{start:"2026-06-20T00:00:00.000Z", end:"2026-06-21T00:00:00.000Z"}, {start:"2026-06-23T00:00:00.000Z", end:"2026-06-24T00:00:00.000Z"}, {start:"2026-06-30T00:00:00.000Z", end:"2026-07-01T00:00:00.000Z"}] (each entry is that day's own midnight to the next day's midnight). Ranges can be single days or multi-day spans, do not need to be contiguous, and do not need to be given in order -- the chart always lays them out chronologically and gives every calendar day equal width on the axis, so a 10-day gap between two selected dates does not waste space. The combined span across all ranges is still capped like a normal window. The chart itself also lets the viewer hide/show individual days afterward without a new call. | |
| embedHtml | No | Optional (default: false). Force the full HTML page to also be included in the response even when the browser auto-open succeeded. Leave this false in normal use — including it costs exactly the slow, large-response-body path this tool is designed to avoid. Only set true if the patient explicitly asks to see the raw page/markup. | |
| maxPoints | No | Optional, advanced. A precise total-point-budget alternative to `resolution` (20-50000), shared across all ranges when `ranges` is used; ignored if `resolution` is also given. Omit both in normal use: the routine default is up to 12000 points, which covers a full month at native cadence with no downsampling -- see DATA RESOLUTION above. | |
| resolution | No | Optional. The simple, patient-facing way to control chart detail: a plain divisor for how much of the real CGM data to plot, applied to each range independently. 1 = ALL readings (full native ~5-minute resolution, no downsampling at all, however wide the window -- use this whenever the patient wants full detail and is fine with a larger/slower-to-load file). 2 = every 2nd reading (roughly half), 3 = every 3rd (roughly a third), and so on. Omit this in normal use -- see DATA RESOLUTION above for when to offer it as a choice. Overrides `maxPoints` when both are given. |
TDQS
Does the description disclose side effects, auth requirements, rate limits, or destructive behavior?
With no annotations, the description carries the full burden, and it goes far beyond a basic summary: it discloses that the tool opens the browser itself, what openAttempted true/false means, that `html` is only a fallback, that wall-clock time is used rather than UTC, that downsampling preserves true min/max, and that the chart's day-details panel uses the same aggregator as get_diabetes_summary. This is exemplary behavioral disclosure.
Agents need to know what a tool does to the world before calling it. Descriptions should go beyond structured annotations to explain consequences.
Is the description appropriately sized, front-loaded, and free of redundancy?
The description is long, but the length is largely earned: it is organized into labelled sections (DATA RESOLUTION, CRITICAL, Returns) and front-loads the most operationally important rule ('do not rebuild the chart yourself'). There is minor redundancy around the 'do not reproduce the HTML' instruction, so it is not perfectly tight, but every major paragraph serves a real decision an agent must make.
Shorter descriptions cost fewer tokens and are easier for agents to parse. Every sentence should earn its place.
Given the tool's complexity, does the description cover enough for an agent to succeed on first attempt?
Given 9 parameters, no annotations, and no output schema, this description is remarkably complete. It covers return fields, success/failure fallback behavior, time-zone semantics, downsampling policy, response etiquette, and how to compare against sibling tools. An agent has everything it needs to call the tool and behave correctly afterward.
Complex tools with many parameters or behaviors need more documentation. Simple tools need less. This dimension scales expectations accordingly.
Does the description clarify parameter syntax, constraints, interactions, or defaults beyond what the schema provides?
Schema coverage is 100%, so the baseline is 3. The description adds substantial value by explaining the `ranges` alternative in depth (non-contiguous windows, equal day width, ordering), the `resolution` divisor semantics, the interaction between `resolution` and `maxPoints`, and the cost of `embedHtml`. Parameters like lower/upper rely on the schema, but overall the description clearly exceeds the baseline.
Input schemas describe structure but not intent. Descriptions should explain non-obvious parameter relationships and valid value ranges.
Does the description clearly state what the tool does and how it differs from similar tools?
The description opens with a specific verb and resource: it 'Generates a clinical-report-style glucose chart', saves it to a file, and opens it in the browser. It also explicitly distinguishes itself from the sibling get_chart_series ('USE THIS instead of get_chart_series whenever the patient wants to SEE a chart'), so an agent can select it correctly without inspecting schemas.
Agents choose between tools based on descriptions. A clear purpose with a specific verb and resource helps agents select the right tool.
Does the description explain when to use this tool, when not to, or what alternatives exist?
The description is explicit about when to use this tool over get_chart_series, when to use `ranges` instead of start/end, when to offer `resolution`, and when `embedHtml` should be set. It even gives a patient-facing script for the downsampling tradeoff. This is the strongest possible usage guidance.
Agents often have multiple tools that could apply. Explicit usage guidance like "use X instead of Y when Z" prevents misuse.
get_chart_seriesDownsampled series for plottingA
Glucose downsampled to a target number of points for drawing a chart, with a min/max band per point so spikes are not lost, plus bolus events as overlay markers.
Use this whenever the patient wants a GRAPH or CHART of glucose over a window, or when illustrating "what a good/bad day looked like" — a picture of the trace is far more useful here than a table of numbers. It returns a few hundred points instead of every 5-minute reading, so it is far cheaper than get_glucose and a chart cannot show more points than its pixel width anyway. Reserve get_glucose for close-up numeric inspection of a short window, not for wide charts.
IMPORTANT — this tool returns DATA, not a picture: after calling it, actually render the points as a visual line/area chart with time on the x-axis and glucose on the y-axis, shading the target range and marking boluses, rather than only describing the numbers in prose. Producing that chart is the point of calling this tool at all.
HOW TO RENDER IT — DO NOT use a quick/built-in auto-chart shortcut for this: any lightweight "visualize this data" feature that infers its own axis from a plain array almost always falls back to plotting by point POSITION (1, 2, 3, ...) because it never looks at the t field or the xAxis data below — this has been confirmed to happen and produces a meaningless, unlabelled time axis. Instead, BUILD A CUSTOM CHART YOURSELF (e.g. an HTML/SVG or JS-charting-library artifact you write) where you explicitly control the x-axis scale and can use the xAxis data below directly. If your environment offers both a quick chart shortcut and the ability to write custom HTML/code, always choose the custom option for this tool's output.
X-AXIS — READ THIS CAREFULLY, this is commonly gotten wrong: the x-axis MUST be a genuine TIME SCALE, NEVER a plain category/index axis showing point position (1, 2, 3, ... maxPoints, or "286"). Points are NOT evenly spaced in time (a sensor gap or the short-fidelity path below means the interval between consecutive points can vary), so an index axis silently distorts time and every tick is meaningless to the reader.
To make this hard to get wrong, the response includes a ready-made xAxis object — USE IT DIRECTLY instead of inventing your own tick scheme:
xAxis.ticks: an array of {t, label} already spaced sensibly for the window's span (every 3-4 hours for anything up to ~10 days, daily beyond that). Plot these as the x-axis tick marks, usinglabelas the tick text VERBATIM — do not recompute your own tick positions or labels.xAxis.days: one {startT, endT, label} entry per calendar day the window touches (e.g. "Wed 17 Jun"), present whenever the window spans more than a single day. For a multi-day chart, this is what makes it read correctly: divide the plot into these segments with a vertical divider at each boundary, and print each segment'slabelcentred underneath — e.g. three equal sections labelled "Wed 17 Jun", "Thu 18 Jun", "Fri 19 Jun" for a 3-day window, each showing that day's own hour ticks above it. This is exactly the "N equally spaced, dated sections" layout a multi-day glucose chart needs.daysis empty for a single-day window (nothing to divide) and for very long windows (too many days to label individually —ticksswitches to one date label per tick there instead).A gap in the data (missing points) must still show as a visual gap or interrupted line against this time scale — never compressed away.
Glucose values are in the configured unit; times are plain wall clock time (device-local), not UTC.
Returns: unit, a points array (t, avg, min, max, n per point), an events array of bolus markers for overlay, and xAxis (spanHours, ticks, days) as described above.
| Name | Required | Description | Default |
|---|---|---|---|
| end | Yes | Required. Window end as an ISO 8601 timestamp, e.g. 2026-06-20T00:00:00.000Z — plain wall clock time, same caveat as start (the "Z" is a format artifact, not a UTC claim). Treated as inclusive and must be after start. All timestamps returned by this API are likewise plain wall clock time, unconverted. | |
| start | Yes | Required. Window start as an ISO 8601 timestamp, e.g. 2026-06-19T00:00:00.000Z. IMPORTANT: despite the trailing "Z", this is plain WALL CLOCK time, not true UTC — Glooko records only the literal date/time the patient's device showed, with no timezone attached. Use the patient's own wall-clock digits directly (no conversion): resolve "yesterday" or "last 3 weeks" straight into the matching wall-clock date and time. Treated as inclusive. | |
| maxPoints | No | Optional (default: 250). Target number of plotted points (20-1000). 200-400 is plenty for a smooth chart at typical screen widths; higher values cost more for little visual gain. |
TDQS
Does the description disclose side effects, auth requirements, rate limits, or destructive behavior?
With no annotations provided, the description carries the full burden of behavioral disclosure. It clearly states the tool returns data, not a rendered picture; explains the downsampling and min/max banding; warns that points are not evenly spaced in time; explains the xAxis object is ready to use; and documents wall-clock vs UTC behavior. This is unusually thorough.
Agents need to know what a tool does to the world before calling it. Descriptions should go beyond structured annotations to explain consequences.
Is the description appropriately sized, front-loaded, and free of redundancy?
The description is long, but it is well-structured with bolded section headers, bullet lists, and clear warnings. It front-loads the core purpose and then organizes rendering and x-axis guidance so an agent can act on it. Some points are restated for emphasis, but the extra length is largely justified by the tool's easy-to-misuse output.
Shorter descriptions cost fewer tokens and are easier for agents to parse. Every sentence should earn its place.
Given the tool's complexity, does the description cover enough for an agent to succeed on first attempt?
There is no output schema, so the description must explain the return shape, and it does: unit, points array with t/avg/min/max/n, events array for bolus markers, and xAxis with spanHours, ticks, and days. It also covers rendering requirements, timezone conventions, gap behavior, and multi-day chart layout. This is complete enough for an agent to call and use the result correctly.
Complex tools with many parameters or behaviors need more documentation. Simple tools need less. This dimension scales expectations accordingly.
Does the description clarify parameter syntax, constraints, interactions, or defaults beyond what the schema provides?
The schema already covers all three parameters with high coverage, so the baseline is 3. The description adds useful extra context beyond the schema, such as the target-point guidance that 200-400 is plenty for a smooth chart and that a chart cannot show more points than its pixel width, which helps an agent choose maxPoints sensibly.
Input schemas describe structure but not intent. Descriptions should explain non-obvious parameter relationships and valid value ranges.
Does the description clearly state what the tool does and how it differs from similar tools?
The description opens with a specific statement of what the tool does: it returns glucose downsampled for chart drawing, with min/max bands per point and bolus overlay events. It further distinguishes itself by explicitly saying it returns data and not a picture, and by naming get_glucose as the alternative for numeric close-up inspection.
Agents choose between tools based on descriptions. A clear purpose with a specific verb and resource helps agents select the right tool.
Does the description explain when to use this tool, when not to, or what alternatives exist?
It explicitly says to use this tool whenever a graph or chart of glucose over a window is needed, and tells the agent to render the returned data as a visual line/area chart. It also gives a when-not-to-use direction by reserving get_glucose for close-up numeric inspection rather than wide charts.
Agents often have multiple tools that could apply. Explicit usage guidance like "use X instead of Y when Z" prevents misuse.
get_daily_insulinDaily insulin totals (Glooko per-day figures)A
Glooko's own per-day insulin totals shown verbatim: basal units, bolus units and the combined total for each day, plus a window aggregate.
Use this when you specifically want the device-reported daily totals (for example a day-by-day basal/bolus table, or "what was my total daily dose each day"). Note: the bolus here is Glooko's pre-aggregated daily figure. For bolus aggregated from individual events (the project-wide method used everywhere else), use get_diabetes_summary or get_trend. Basal is only available from Glooko, so this and those tools share the same basal source.
The most recent day may be flagged provisional if it is still today and not yet finalised.
Returns: source ("glooko-daily"), a days array (date, basalUnits, bolusUnits, totalUnits, provisional), and an aggregate (daysWithData, basalUnits, bolusUnits, totalUnits, basalUnitsPerDay, bolusUnitsPerDay, totalUnitsPerDay, basalPercent). All dates are wall-clock (device-local) days.
| Name | Required | Description | Default |
|---|---|---|---|
| end | Yes | Required. Window end as an ISO 8601 timestamp, e.g. 2026-06-20T00:00:00.000Z — plain wall clock time, same caveat as start (the "Z" is a format artifact, not a UTC claim). Treated as inclusive and must be after start. All timestamps returned by this API are likewise plain wall clock time, unconverted. | |
| start | Yes | Required. Window start as an ISO 8601 timestamp, e.g. 2026-06-19T00:00:00.000Z. IMPORTANT: despite the trailing "Z", this is plain WALL CLOCK time, not true UTC — Glooko records only the literal date/time the patient's device showed, with no timezone attached. Use the patient's own wall-clock digits directly (no conversion): resolve "yesterday" or "last 3 weeks" straight into the matching wall-clock date and time. Treated as inclusive. |
TDQS
Does the description disclose side effects, auth requirements, rate limits, or destructive behavior?
With no annotations available, the description carries the full burden. It discloses the data source (Glooko verbatim), the provisional flag on the current day before finalisation, and the wall-clock date semantics. It does not explicitly address read-only/no side-effect status or potential auth/rate-limit constraints, but its behavioral claims are clear and consistent.
Agents need to know what a tool does to the world before calling it. Descriptions should go beyond structured annotations to explain consequences.
Is the description appropriately sized, front-loaded, and free of redundancy?
The description is front-loaded with the core purpose, then usage guidance, then important caveats, then a necessary return-shape listing because there is no output schema. Every sentence earns its place; no filler or repetition.
Shorter descriptions cost fewer tokens and are easier for agents to parse. Every sentence should earn its place.
Given the tool's complexity, does the description cover enough for an agent to succeed on first attempt?
Given two clearly documented parameters, no output schema, and no annotations, the description supplies all essential context: return fields, date interpretation, provisional-day caveat, and sibling-tool routing. Nothing an agent needs to correctly call this tool is missing.
Complex tools with many parameters or behaviors need more documentation. Simple tools need less. This dimension scales expectations accordingly.
Does the description clarify parameter syntax, constraints, interactions, or defaults beyond what the schema provides?
Schema description coverage is 100%, so the schema already documents start and end meaningfully, including wall-clock caveats. The description reinforces the wall-clock convention but adds no parameter-specific semantics beyond the schema, which matches the baseline for full schema coverage.
Input schemas describe structure but not intent. Descriptions should explain non-obvious parameter relationships and valid value ranges.
Does the description clearly state what the tool does and how it differs from similar tools?
The first sentence states exactly what the tool returns — Glooko's verbatim per-day totals with basal units, bolus units, combined total, and a window aggregate — using a specific verb and resource. It also distinguishes itself from get_diabetes_summary and get_trend by positioning this as the device-reported daily method versus the event-aggregated method.
Agents choose between tools based on descriptions. A clear purpose with a specific verb and resource helps agents select the right tool.
Does the description explain when to use this tool, when not to, or what alternatives exist?
The description gives explicit when-to-use context ('Use this when you specifically want the device-reported daily totals') and explicit alternatives with the condition for choosing them ('For bolus aggregated from individual events... use get_diabetes_summary or get_trend'). This leaves no ambiguity about tool selection.
Agents often have multiple tools that could apply. Explicit usage guidance like "use X instead of Y when Z" prevents misuse.
get_device_eventsPod and CGM sensor changesA
Pod changes (the Omnipod is replaced roughly every 3 days) and CGM sensor changes, as timestamped events, kept as two separate lists.
These are point-in-time markers, not amounts. They are most useful as CONTEXT for nearby glucose disruption: a fresh pod can run high for the first hours while the cannula settles, and a new sensor can read erratically while it warms up. Use them to check whether an unexplained high or a run of odd readings lines up with a recent change. Treat any such link as a possible contributing factor, never assert it as the cause.
Times are plain wall clock time (device-local), not UTC.
Returns: podChanges and sensorChanges arrays of wall-clock timestamps, plus a count for each.
| Name | Required | Description | Default |
|---|---|---|---|
| end | Yes | Required. Window end as an ISO 8601 timestamp, e.g. 2026-06-20T00:00:00.000Z — plain wall clock time, same caveat as start (the "Z" is a format artifact, not a UTC claim). Treated as inclusive and must be after start. All timestamps returned by this API are likewise plain wall clock time, unconverted. | |
| start | Yes | Required. Window start as an ISO 8601 timestamp, e.g. 2026-06-19T00:00:00.000Z. IMPORTANT: despite the trailing "Z", this is plain WALL CLOCK time, not true UTC — Glooko records only the literal date/time the patient's device showed, with no timezone attached. Use the patient's own wall-clock digits directly (no conversion): resolve "yesterday" or "last 3 weeks" straight into the matching wall-clock date and time. Treated as inclusive. |
TDQS
Does the description disclose side effects, auth requirements, rate limits, or destructive behavior?
With no annotations provided, the description shoulders the transparency burden and does well: it discloses that events are point-in-time markers, that times are 'plain wall clock time (device-local), not UTC,' and that the result contains podChanges/sensorChanges arrays plus a count. It also explains the intended interpretation to prevent misuse. It does not mention pagination or ordering, but for a simple read-only list tool that is not a major gap.
Agents need to know what a tool does to the world before calling it. Descriptions should go beyond structured annotations to explain consequences.
Is the description appropriately sized, front-loaded, and free of redundancy?
The description is organized into short paragraphs: what is returned, when to use it, timezone caveat, and return shape. It is front-loaded and avoids fluff, though the middle paragraph on clinical context is somewhat extended. Overall it is efficient and readable.
Shorter descriptions cost fewer tokens and are easier for agents to parse. Every sentence should earn its place.
Given the tool's complexity, does the description cover enough for an agent to succeed on first attempt?
Given no output schema and no annotations, the description compensates by specifying the return structure (two arrays and counts), the timestamp semantics, and the practical use case. It also warns against over-interpretation. The tool is simple enough (two required params, no nested objects) that nothing critical is missing.
Complex tools with many parameters or behaviors need more documentation. Simple tools need less. This dimension scales expectations accordingly.
Does the description clarify parameter syntax, constraints, interactions, or defaults beyond what the schema provides?
The input schema already documents start and end in detail, including ISO 8601 format, inclusive bounds, ordering, and the wall-clock caveat. The description reaffirms the wall-clock caveat but adds no new parameter-specific semantics beyond the schema's 100% coverage, so a baseline 3 is appropriate.
Input schemas describe structure but not intent. Descriptions should explain non-obvious parameter relationships and valid value ranges.
Does the description clearly state what the tool does and how it differs from similar tools?
The description states exactly what the tool provides: 'Pod changes ... and CGM sensor changes, as timestamped events, kept as two separate lists.' It also clarifies these are point-in-time markers, not amounts, and names the returned fields (podChanges and sensorChanges), so the agent understands the resource without ambiguity. This clearly distinguishes it from sibling glucose/insulin tools by subject matter.
Agents choose between tools based on descriptions. A clear purpose with a specific verb and resource helps agents select the right tool.
Does the description explain when to use this tool, when not to, or what alternatives exist?
The description gives a concrete use case: use the events as 'CONTEXT for nearby glucose disruption' to check whether an unexplained high or odd readings 'lines up with a recent change.' It also tells the agent how to interpret results ('possible contributing factor, never assert it as the cause'). It does not name explicit exclusions or sibling alternatives, but among the visible siblings none overlap directly with device-change events, so the omission is minor.
Agents often have multiple tools that could apply. Explicit usage guidance like "use X instead of Y when Z" prevents misuse.
get_diabetes_summaryDiabetes summary for a windowA
The single best starting point for any overview question ("how was my control yesterday / over the last 3 weeks / last 6 months"). Returns fixed-size aggregates no matter how long the span, so it is cheap to call over months and tolerates very long windows.
TIP: because this tool is uncapped, a deliberately wide call (e.g. start 2000-01-01T00:00:00.000Z, end tomorrow) is the quickest way to discover how much data the system actually holds: the returned reportRange.start and reportRange.end are the first and last readings present in the archive. Use it as an orientation call before drilling into a specific period.
Insulin uses the project-wide rule: bolus is summed from individual events; basal comes from Glooko's per-day totals. The basal/bolus split is reported as percentages on a per-day-rate basis (a useful balance metric for a closed-loop system). GMI and CV are computed from the CGM readings.
Best/worst day and hour are ranked decisively: Time In Range first, then closeness to the glucose target in force at each reading (median absolute deviation), then variability, and each carries those figures so the ranking is explainable.
Returns: reportRange (start, end, days, reflecting the actual data present), glucoseControl (averageBG, gmiEstimatedA1c, stdDev, coefficientOfVariation, variability flag, timeInRange/timeLow/timeHigh, cgmReadingCount); glucoseExtremes (highest and lowest readings, each with every timestamped instance); bestWorst (bestDay, worstDay, bestHour, worstHour, each with tir, medianAbsTargetDev, cv); insulin (observedDays, bolusUnits, bolusUnitsPerDay, bolusEventCount, avgUnitsPerBolus, and when Glooko daily data exists basalUnits, basalDayCount, averageBasalUnitsPerDay, basalPercent, bolusPercent); bolusArchitecture (counts by bolus type); carbs (carbsGrams, carbsPerDay, carbEntryCount); and settings (the time-segmented profiles in force). All timestamps are plain wall clock time (see start/end parameter notes), not UTC.
| Name | Required | Description | Default |
|---|---|---|---|
| end | Yes | Required. Window end as an ISO 8601 timestamp, e.g. 2026-06-20T00:00:00.000Z — plain wall clock time, same caveat as start (the "Z" is a format artifact, not a UTC claim). Treated as inclusive and must be after start. All timestamps returned by this API are likewise plain wall clock time, unconverted. | |
| lower | No | Optional. Low (hypo) boundary in the chosen unit; readings below it count as time-low. Omit to use the server default (OMNI_LOWER). Pass only to override for this one call, e.g. to ask about time under a different threshold. | |
| start | Yes | Required. Window start as an ISO 8601 timestamp, e.g. 2026-06-19T00:00:00.000Z. IMPORTANT: despite the trailing "Z", this is plain WALL CLOCK time, not true UTC — Glooko records only the literal date/time the patient's device showed, with no timezone attached. Use the patient's own wall-clock digits directly (no conversion): resolve "yesterday" or "last 3 weeks" straight into the matching wall-clock date and time. Treated as inclusive. | |
| units | No | Optional. Glucose unit for this call. Omit to use the unit configured on the server (OMNI_UNITS). One of: "mmol" (mmol/L) or "mgdl" (mg/dL). Pass only to override the configured unit for this one call. | |
| upper | No | Optional. High (hyper) boundary in the chosen unit; readings above it count as time-high. Omit to use the server default (OMNI_UPPER). Pass only to override for this one call. |
TDQS
Does the description disclose side effects, auth requirements, rate limits, or destructive behavior?
With no annotations, the description carries the full behavioral burden and does so exceptionally well. It discloses fixed-size output, cheap long-window calls, uncapped orientation behavior, insulin aggregation rules, tie-breaking logic for ranking, and the plain-wall-clock timezone convention. This gives an agent a reliable model of how the tool behaves.
Agents need to know what a tool does to the world before calling it. Descriptions should go beyond structured annotations to explain consequences.
Is the description appropriately sized, front-loaded, and free of redundancy?
The description is long but its length is largely earned: it front-loads purpose, adds a practical discovery tip, then explains computational caveats and the return contract, which is necessary because there is no output schema. A few parenthetical asides are slightly expendable, but overall it is well-ordered and information-dense.
Shorter descriptions cost fewer tokens and are easier for agents to parse. Every sentence should earn its place.
Given the tool's complexity, does the description cover enough for an agent to succeed on first attempt?
For a complex aggregation tool with no annotations and no output schema, this description is remarkably complete. It explains the full set of returned fields, how aggregates are computed, how rankings are resolved, and the timezone convention. An agent has everything it needs to invoke the tool correctly and interpret the result.
Complex tools with many parameters or behaviors need more documentation. Simple tools need less. This dimension scales expectations accordingly.
Does the description clarify parameter syntax, constraints, interactions, or defaults beyond what the schema provides?
Schema description coverage is 100%, so the baseline is 3. The description reinforces the wall-clock timestamp caveat and refers to the parameter notes, but the schema already documents defaults, overrides, and formats for all five parameters. No additional parameter meaning is needed.
Input schemas describe structure but not intent. Descriptions should explain non-obvious parameter relationships and valid value ranges.
Does the description clearly state what the tool does and how it differs from similar tools?
The first sentence names the tool as 'the single best starting point for any overview question' and specifies that it returns fixed-size aggregates over a window. It clearly positions itself as distinct from the sibling period-specific tools by framing itself as an orientation call before drilling into a specific period.
Agents choose between tools based on descriptions. A clear purpose with a specific verb and resource helps agents select the right tool.
Does the description explain when to use this tool, when not to, or what alternatives exist?
The description explicitly recommends using this tool for overview questions and as an orientation call to discover how much data the system holds before drilling into a specific period. It does not explicitly name alternatives or give when-not-to-use conditions, but the usage context is strongly established.
Agents often have multiple tools that could apply. Explicit usage guidance like "use X instead of Y when Z" prevents misuse.
get_enriched_bolus_logEnriched bolus logA
Every bolus in the window, each enriched with the context needed to judge whether it was the right dose: the interpolated CGM value at the moment of delivery, and the ISF, carb ratio, target and DIA in force at that time.
Each record also carries delivered vs programmed units (delivered < programmed means the bolus was interrupted, flagged interrupted=true); the calculator recommendation broken into recCorrection, recCarbs and recTotal; whether the user overrode it (override: "above" or "below"); the bloodGlucoseInput and its source the calculator used; the bolus class; and isManual.
Use it to investigate insulin stacking, bolus-calculator accuracy, interrupted deliveries and user overrides. Filter with "classes" to pull only the bolus types you care about and keep the response small.
Capped to 92 days per call. All glucose values are in the configured unit; times are plain wall clock time (device-local), not UTC.
Returns: count, the classes filter applied, and a boluses array of enriched records (each with time, units, delivered, programmed, interrupted, recCorrection, recCarbs, recTotal, override, bgInput, bgSource, cgm_val, class, isManual, and a context object of the settings in force).
| Name | Required | Description | Default |
|---|---|---|---|
| end | Yes | Required. Window end as an ISO 8601 timestamp, e.g. 2026-06-20T00:00:00.000Z — plain wall clock time, same caveat as start (the "Z" is a format artifact, not a UTC claim). Treated as inclusive and must be after start. All timestamps returned by this API are likewise plain wall clock time, unconverted. | |
| start | Yes | Required. Window start as an ISO 8601 timestamp, e.g. 2026-06-19T00:00:00.000Z. IMPORTANT: despite the trailing "Z", this is plain WALL CLOCK time, not true UTC — Glooko records only the literal date/time the patient's device showed, with no timezone attached. Use the patient's own wall-clock digits directly (no conversion): resolve "yesterday" or "last 3 weeks" straight into the matching wall-clock date and time. Treated as inclusive. | |
| classes | No | Optional filter. Array of bolus classes to include. Valid values (use these exact strings): "Meal Bolus" (carb-only dose), "Manual Correction Bolus" (user-initiated correction for a high), "System Correction Bolus" (algorithm-initiated correction), "Meal With Correction Bolus" (combined carb + correction dose). Provide one or more to combine, e.g. ["Manual Correction Bolus", "System Correction Bolus"]. Omit or leave empty to return all classes. |
TDQS
Does the description disclose side effects, auth requirements, rate limits, or destructive behavior?
No annotations are provided, so the description carries the full burden, and it is unusually thorough: it discloses the 92-day cap, wall-clock versus UTC handling, the configured glucose unit, the interrupted flag semantics, override values, and the complete return record shape. It also explains the 'Z' caveat in the schema, going beyond what structured data conveys.
Agents need to know what a tool does to the world before calling it. Descriptions should go beyond structured annotations to explain consequences.
Is the description appropriately sized, front-loaded, and free of redundancy?
The description is long but tightly organized into purpose, field explanation, use cases, constraints, and return contract. The final return-list paragraph is somewhat redundant with the field names already mentioned, but given the record complexity it is justified and every other sentence earns its place.
Shorter descriptions cost fewer tokens and are easier for agents to parse. Every sentence should earn its place.
Given the tool's complexity, does the description cover enough for an agent to succeed on first attempt?
With no output schema, the description fully defines the return contract by listing every field in the boluses array and the top-level count and filter echo. It covers time handling, unit handling, result caps, and filtering behavior, making it complete enough to call correctly.
Complex tools with many parameters or behaviors need more documentation. Simple tools need less. This dimension scales expectations accordingly.
Does the description clarify parameter syntax, constraints, interactions, or defaults beyond what the schema provides?
Although schema coverage is 100%, the description adds substantial meaning: it clarifies that start/end times are plain wall-clock device-local times despite the trailing 'Z', that end is inclusive and must be after start, and it expands each 'classes' enum value with practical meaning and combination examples. This materially improves correct invocation beyond the schema.
Input schemas describe structure but not intent. Descriptions should explain non-obvious parameter relationships and valid value ranges.
Does the description clearly state what the tool does and how it differs from similar tools?
The description states a specific verb and resource: it retrieves every bolus in the window and explains exactly what 'enriched' means (interpolated CGM, ISF, carb ratio, target, DIA). This clearly differentiates it from the sibling tools, which address trends, glucose, basals, settings, or chart data.
Agents choose between tools based on descriptions. A clear purpose with a specific verb and resource helps agents select the right tool.
Does the description explain when to use this tool, when not to, or what alternatives exist?
It explicitly says 'Use it to investigate insulin stacking, bolus-calculator accuracy, interrupted deliveries and user overrides,' giving clear use cases. It also advises using the 'classes' filter to keep responses small. It doesn't explicitly contrast with sibling tools or state when not to use it, but the context is strong enough for selection.
Agents often have multiple tools that could apply. Explicit usage guidance like "use X instead of Y when Z" prevents misuse.
get_glucoseGlucose readings for a window (filterable by band)A
Individual timestamped CGM readings for a window, optionally filtered to just the part of the range you care about.
The "band" option decides which readings come back: "low" (below the low boundary, i.e. hypos), "high" (above the high boundary), "target" (in range), or "all" (every reading, each tagged with its band). Use "low"/"high" to pull only excursions for a close look without dragging in thousands of normal readings; "all" gives the full trace.
This returns raw points, so it is capped to 21 days. For a wide chart use get_chart_series (downsampled); for aggregate stats use get_diabetes_summary or get_trend rather than computing over a raw array yourself.
Glucose values are in the configured unit; times are plain wall clock time (device-local), not UTC.
Returns: window, thresholdsUsed (lower, upper, unit), the band requested, count, and a readings array (time, value, velocity, plus band when band="all").
| Name | Required | Description | Default |
|---|---|---|---|
| end | Yes | Required. Window end as an ISO 8601 timestamp, e.g. 2026-06-20T00:00:00.000Z — plain wall clock time, same caveat as start (the "Z" is a format artifact, not a UTC claim). Treated as inclusive and must be after start. All timestamps returned by this API are likewise plain wall clock time, unconverted. | |
| band | No | Optional (default: "all"). Which readings to return. "low" = below the low boundary (hypo); "high" = above the high boundary (hyper); "target" = in range, between the boundaries inclusive; "all" = every reading, each tagged with its band. | all |
| lower | No | Optional. Low (hypo) boundary in the chosen unit; readings below it count as time-low. Omit to use the server default (OMNI_LOWER). Pass only to override for this one call, e.g. to ask about time under a different threshold. | |
| start | Yes | Required. Window start as an ISO 8601 timestamp, e.g. 2026-06-19T00:00:00.000Z. IMPORTANT: despite the trailing "Z", this is plain WALL CLOCK time, not true UTC — Glooko records only the literal date/time the patient's device showed, with no timezone attached. Use the patient's own wall-clock digits directly (no conversion): resolve "yesterday" or "last 3 weeks" straight into the matching wall-clock date and time. Treated as inclusive. | |
| units | No | Optional. Glucose unit for this call. Omit to use the unit configured on the server (OMNI_UNITS). One of: "mmol" (mmol/L) or "mgdl" (mg/dL). Pass only to override the configured unit for this one call. | |
| upper | No | Optional. High (hyper) boundary in the chosen unit; readings above it count as time-high. Omit to use the server default (OMNI_UPPER). Pass only to override for this one call. |
TDQS
Does the description disclose side effects, auth requirements, rate limits, or destructive behavior?
With no annotations provided, the description carries the full behavioral burden, and it is unusually thorough: it discloses the 21-day cap, that times are device-local wall-clock rather than UTC, that glucose values use the configured unit, that thresholds can be overridden, and what the returned object contains. This goes well beyond a minimal read-only statement.
Agents need to know what a tool does to the world before calling it. Descriptions should go beyond structured annotations to explain consequences.
Is the description appropriately sized, front-loaded, and free of redundancy?
Although the description is longer than average, every sentence earns its place: purpose, filtering semantics, use-case guidance, caveats, and return shape are each covered once and in logical order. It is front-loaded with the core purpose and avoids redundant restatements of the tool name.
Shorter descriptions cost fewer tokens and are easier for agents to parse. Every sentence should earn its place.
Given the tool's complexity, does the description cover enough for an agent to succeed on first attempt?
There is no output schema, so the description correctly compensates by enumerating the return fields: window, thresholdsUsed, band, count, and the readings array with its per-point fields. Combined with the time-zone warning, the 21-day cap, and explicit sibling-tool routing, an agent has everything needed to invoke and interpret this tool correctly.
Complex tools with many parameters or behaviors need more documentation. Simple tools need less. This dimension scales expectations accordingly.
Does the description clarify parameter syntax, constraints, interactions, or defaults beyond what the schema provides?
Schema description coverage is 100%, so the input schema already documents all six parameters in detail, including enums, defaults, requirements, and the wall-clock caveat. The description usefully reinforces the band semantics and the meaning of the optional boundaries, but it does not add significant new per-parameter meaning beyond what the schema already provides.
Input schemas describe structure but not intent. Descriptions should explain non-obvious parameter relationships and valid value ranges.
Does the description clearly state what the tool does and how it differs from similar tools?
The description opens with a precise statement: 'Individual timestamped CGM readings for a window', which names the resource, the verb, and the scope. It also distinguishes itself from siblings by clarifying that this returns raw points, while get_chart_series is downsampled and get_diabetes_summary/get_trend are aggregate tools.
Agents choose between tools based on descriptions. A clear purpose with a specific verb and resource helps agents select the right tool.
Does the description explain when to use this tool, when not to, or what alternatives exist?
The description explicitly tells the agent when to use band='low'/'high' vs 'all', and names concrete alternatives for other use cases: get_chart_series for wide charts, get_diabetes_summary or get_trend for aggregate stats. It also warns about the 21-day cap, leaving no ambiguity about when this tool is appropriate.
Agents often have multiple tools that could apply. Explicit usage guidance like "use X instead of Y when Z" prevents misuse.
get_hourly_trendsHourly (circadian) trendsA
Time In Range and average glucose pooled by clock-hour across the whole window, so every reading that fell in the 07:00 hour on any day is combined into one 07:00 row, and so on for all 24 hours.
Use it for "why am I always high/low at a certain time" questions, recurring circadian patterns, the dawn phenomenon and evening highs.
Hours are the device's own wall-clock hour (not UTC) — this already IS the patient's local hour at the time each reading was taken, so present it as-is with no conversion.
Returns: a byHour array of up to 24 rows, each with hour (wall clock, "HH:00"), averageBG, timeInRange, timeLow, timeHigh and the reading count for that hour. Glucose values are in the configured unit.
| Name | Required | Description | Default |
|---|---|---|---|
| end | Yes | Required. Window end as an ISO 8601 timestamp, e.g. 2026-06-20T00:00:00.000Z — plain wall clock time, same caveat as start (the "Z" is a format artifact, not a UTC claim). Treated as inclusive and must be after start. All timestamps returned by this API are likewise plain wall clock time, unconverted. | |
| lower | No | Optional. Low (hypo) boundary in the chosen unit; readings below it count as time-low. Omit to use the server default (OMNI_LOWER). Pass only to override for this one call, e.g. to ask about time under a different threshold. | |
| start | Yes | Required. Window start as an ISO 8601 timestamp, e.g. 2026-06-19T00:00:00.000Z. IMPORTANT: despite the trailing "Z", this is plain WALL CLOCK time, not true UTC — Glooko records only the literal date/time the patient's device showed, with no timezone attached. Use the patient's own wall-clock digits directly (no conversion): resolve "yesterday" or "last 3 weeks" straight into the matching wall-clock date and time. Treated as inclusive. | |
| units | No | Optional. Glucose unit for this call. Omit to use the unit configured on the server (OMNI_UNITS). One of: "mmol" (mmol/L) or "mgdl" (mg/dL). Pass only to override the configured unit for this one call. | |
| upper | No | Optional. High (hyper) boundary in the chosen unit; readings above it count as time-high. Omit to use the server default (OMNI_UPPER). Pass only to override for this one call. |
TDQS
Does the description disclose side effects, auth requirements, rate limits, or destructive behavior?
With no annotations, the description carries the full burden, and it delivers: it explains the pooling semantics, the critical wall-clock vs UTC nuance, that hours are presented as-is without conversion, and the exact return fields. This is unusually transparent about a subtle timezone behavior that could easily cause misuse.
Agents need to know what a tool does to the world before calling it. Descriptions should go beyond structured annotations to explain consequences.
Is the description appropriately sized, front-loaded, and free of redundancy?
The description is compact and well-structured: core behavior first, then use cases, then the timezone warning, then return format. Every sentence earns its place and no information is redundant with the schema.
Shorter descriptions cost fewer tokens and are easier for agents to parse. Every sentence should earn its place.
Given the tool's complexity, does the description cover enough for an agent to succeed on first attempt?
Given no output schema and no annotations, the description is remarkably complete. It covers what the tool computes, when to use it, the timezone interpretation, the unit convention, and the structure of the byHour result. An agent has enough to invoke it correctly without resorting to guesses.
Complex tools with many parameters or behaviors need more documentation. Simple tools need less. This dimension scales expectations accordingly.
Does the description clarify parameter syntax, constraints, interactions, or defaults beyond what the schema provides?
Schema description coverage is 100%, so the baseline is 3. The input schema fully documents start, end, lower, upper, and units. The description reinforces the window concept and timezone caveat already present in the schema but does not add new parameter-level information.
Input schemas describe structure but not intent. Descriptions should explain non-obvious parameter relationships and valid value ranges.
Does the description clearly state what the tool does and how it differs from similar tools?
The description opens with a precise definition: 'Time In Range and average glucose pooled by clock-hour across the whole window', naming both the resource and the aggregation behavior. It clearly distinguishes itself from ordinary time-series tools by emphasizing that all readings from the same wall-clock hour across days are combined into a single row.
Agents choose between tools based on descriptions. A clear purpose with a specific verb and resource helps agents select the right tool.
Does the description explain when to use this tool, when not to, or what alternatives exist?
The description explicitly lists concrete use cases: 'why am I always high/low at a certain time' questions, recurring circadian patterns, dawn phenomenon, and evening highs. It does not name sibling tools or say when not to use this tool, but the context is clear enough for an agent to select it appropriately.
Agents often have multiple tools that could apply. Explicit usage guidance like "use X instead of Y when Z" prevents misuse.
get_meal_window_analysisPost-meal target window analysisA
A focused look around a single event (typically a meal bolus): exactly 30 minutes before and 3 hours after the timestamp you pass.
Use it to judge a post-meal excursion and how well a dose worked, without pulling whole days. Find the event time first (e.g. from get_enriched_bolus_log), then pass it here.
Glucose values are in the configured unit; times are plain wall clock time (device-local), not UTC.
Returns: targetEvent (the timestamp you passed), unit, a glucoseTimeline array (time, value) across the window, and an associatedBoluses array of enriched bolus records that fall in the window.
| Name | Required | Description | Default |
|---|---|---|---|
| units | No | Optional. Glucose unit for this call. Omit to use the unit configured on the server (OMNI_UNITS). One of: "mmol" (mmol/L) or "mgdl" (mg/dL). Pass only to override the configured unit for this one call. | |
| eventTimestamp | Yes | The concrete ISO 8601 timestamp of the meal/bolus event, in plain wall clock time (device-local) — use the exact wall-clock digits, no UTC conversion. Returned times are likewise wall clock, not UTC. |
TDQS
Does the description disclose side effects, auth requirements, rate limits, or destructive behavior?
With no annotations, the description carries the behavioral burden and mostly succeeds. It discloses the exact time window, states that times are wall-clock device-local and not UTC, and clarifies that glucose values follow the configured/overridden unit. It also outlines the returned fields. Minor caveat: the phrase 'configured unit' does not explicitly restate the effect of the units override, but the schema compensates.
Agents need to know what a tool does to the world before calling it. Descriptions should go beyond structured annotations to explain consequences.
Is the description appropriately sized, front-loaded, and free of redundancy?
The description is tight and front-loaded: first the exact window, then the use case, then time/unit caveats, then the return shape. Every sentence earns its place without fluff or repetition.
Shorter descriptions cost fewer tokens and are easier for agents to parse. Every sentence should earn its place.
Given the tool's complexity, does the description cover enough for an agent to succeed on first attempt?
The tool has no output schema, but the description compensates by enumerating returned fields and their semantics. It also covers the key operational details: wall-clock times, unit conventions, and how to obtain the required timestamp. Nothing essential is missing for a caller to invoke it correctly.
Complex tools with many parameters or behaviors need more documentation. Simple tools need less. This dimension scales expectations accordingly.
Does the description clarify parameter syntax, constraints, interactions, or defaults beyond what the schema provides?
Schema description coverage is 100%, so the schema already explains both parameters thoroughly. The description adds context about the event source and the analysis window, but it does not materially enhance the meaning of eventTimestamp or units beyond what the input schema already provides.
Input schemas describe structure but not intent. Descriptions should explain non-obvious parameter relationships and valid value ranges.
Does the description clearly state what the tool does and how it differs from similar tools?
The description clearly identifies the tool as a focused single-event analysis: 'exactly 30 minutes before and 3 hours after the timestamp you pass.' It distinguishes itself from broader sibling tools by saying 'without pulling whole days' and even points to a specific sibling for the prerequisite event time.
Agents choose between tools based on descriptions. A clear purpose with a specific verb and resource helps agents select the right tool.
Does the description explain when to use this tool, when not to, or what alternatives exist?
It explicitly states when to use the tool: 'Use it to judge a post-meal excursion and how well a dose worked.' It also gives a concrete workflow by directing the user to find the event time from get_enriched_bolus_log first. It does not enumerate every alternative or exclusion, but the guidance is clear and actionable.
Agents often have multiple tools that could apply. Explicit usage guidance like "use X instead of Y when Z" prevents misuse.
get_settings_historyPump settings historyA
Every Omnipod 5 setting change that was in effect during the window, in chronological order: DIA, max basal rate, and the time-segmented target, ISF and carb-ratio profiles.
Use it to establish which settings were active at a given time (essential before judging a bolus or an excursion), or to see how settings have been adjusted over a long span.
Glucose-based values (target, ISF) are in the configured unit. Effective timestamps are plain wall clock time (device-local), not UTC; the per-segment "from" times are pump-schedule clock-hours.
Returns: a settings array, each entry with its effective timestamp, DIA_hours, maxBasalRate, and the targetBg, isf and carbRatio profiles (each a list of {from, value} time segments).
| Name | Required | Description | Default |
|---|---|---|---|
| end | Yes | Required. Window end as an ISO 8601 timestamp, e.g. 2026-06-20T00:00:00.000Z — plain wall clock time, same caveat as start (the "Z" is a format artifact, not a UTC claim). Treated as inclusive and must be after start. All timestamps returned by this API are likewise plain wall clock time, unconverted. | |
| start | Yes | Required. Window start as an ISO 8601 timestamp, e.g. 2026-06-19T00:00:00.000Z. IMPORTANT: despite the trailing "Z", this is plain WALL CLOCK time, not true UTC — Glooko records only the literal date/time the patient's device showed, with no timezone attached. Use the patient's own wall-clock digits directly (no conversion): resolve "yesterday" or "last 3 weeks" straight into the matching wall-clock date and time. Treated as inclusive. |
TDQS
Does the description disclose side effects, auth requirements, rate limits, or destructive behavior?
With no annotations, the description carries the full burden of behavioral disclosure and does substantial work. It flags the wall-clock-not-UTC convention, warns that the trailing 'Z' is a format artifact, clarifies per-segment times as pump-schedule clock-hours, and states glucose units. It omits auth or rate-limit details, but covers the behaviors most likely to cause misinterpretation.
Agents need to know what a tool does to the world before calling it. Descriptions should go beyond structured annotations to explain consequences.
Is the description appropriately sized, front-loaded, and free of redundancy?
The description is compact and front-loaded: the first sentence states exactly what is returned, the second gives usage context, and the remaining sentences add only high-value details about time handling and output shape. Every sentence earns its place without filler.
Shorter descriptions cost fewer tokens and are easier for agents to parse. Every sentence should earn its place.
Given the tool's complexity, does the description cover enough for an agent to succeed on first attempt?
There is no output schema, but the description compensates by explicitly describing the returned settings array, its per-entry fields, and the time-segment shape ({from, value}). Combined with the 100%-covered input schema, an agent has enough information to invoke the tool and interpret its results correctly.
Complex tools with many parameters or behaviors need more documentation. Simple tools need less. This dimension scales expectations accordingly.
Does the description clarify parameter syntax, constraints, interactions, or defaults beyond what the schema provides?
Schema description coverage is 100%, so the baseline applies. The schema already documents start and end as required ISO 8601 wall-clock timestamps, inclusive behavior, and the timezone caveat. The description reinforces the window concept but adds little parameter-specific meaning beyond what the schema already provides.
Input schemas describe structure but not intent. Descriptions should explain non-obvious parameter relationships and valid value ranges.
Does the description clearly state what the tool does and how it differs from similar tools?
The description opens with a specific verb and resource: it retrieves every Omnipod 5 setting change in effect during a window, in chronological order, and enumerates exactly what is included (DIA, max basal rate, target/ISF/carb-ratio profiles). This scope is distinct from the sibling tools, which focus on glucose, trends, boluses, and device events.
Agents choose between tools based on descriptions. A clear purpose with a specific verb and resource helps agents select the right tool.
Does the description explain when to use this tool, when not to, or what alternatives exist?
The description gives concrete use cases: establishing which settings were active before judging a bolus or excursion, and reviewing how settings changed over a long span. It does not explicitly name sibling alternatives or state when not to use this tool, but the usage context is clear enough for an agent to select it appropriately.
Agents often have multiple tools that could apply. Explicit usage guidance like "use X instead of Y when Z" prevents misuse.
get_trendBucketed trend over any timeframeA
Glucose, insulin and carb aggregates split into time buckets across a span, for "how have things changed month by month over the last year" style questions.
Each bucket is computed independently from the raw readings (not by averaging averages), so a year split by month returns 12 correct rows in a single call without pulling raw data back to you. Prefer this over making many separate summary calls for a multi-period comparison.
Insulin per bucket follows the same rule as elsewhere: bolus is summed from individual events; basal comes from Glooko's per-day totals. Each bucket also reports observedDays (the real decimal span of data in it) and a coverage percentage, so you can judge which rows to trust.
Returns: bucketCount and a buckets array. Each row has: bucket (period key), start, end, observedDays; glucose (avg, timeInRange, timeLow, timeHigh, stdDev, coefficientOfVariation, gmiEstimatedA1c, cgmReadingCount); insulin (bolusUnits, bolusUnitsPerDay, bolusEventCount, avgUnitsPerBolus, and when Glooko daily data exists basalUnits, basalDayCount, averageBasalUnitsPerDay, basalPercent, bolusPercent); carbs (carbsGrams, carbsPerDay, carbEntryCount); and coverage (cgmReadingCount, expectedReadingCount, coveragePercent, trustworthy).
| Name | Required | Description | Default |
|---|---|---|---|
| end | Yes | Required. Window end as an ISO 8601 timestamp, e.g. 2026-06-20T00:00:00.000Z — plain wall clock time, same caveat as start (the "Z" is a format artifact, not a UTC claim). Treated as inclusive and must be after start. All timestamps returned by this API are likewise plain wall clock time, unconverted. | |
| mode | No | Optional (default: "calendar"). How the span is divided into buckets. "calendar" uses real calendar units (days/weeks/months/quarters) with ragged edges at the ends; "fixed" uses equal-length buckets of fixedSizeDays counting from the start date. Choose the bucket size with "granularity" (calendar) or "fixedSizeDays" (fixed). | calendar |
| lower | No | Optional. Low (hypo) boundary in the chosen unit; readings below it count as time-low. Omit to use the server default (OMNI_LOWER). Pass only to override for this one call, e.g. to ask about time under a different threshold. | |
| start | Yes | Required. Window start as an ISO 8601 timestamp, e.g. 2026-06-19T00:00:00.000Z. IMPORTANT: despite the trailing "Z", this is plain WALL CLOCK time, not true UTC — Glooko records only the literal date/time the patient's device showed, with no timezone attached. Use the patient's own wall-clock digits directly (no conversion): resolve "yesterday" or "last 3 weeks" straight into the matching wall-clock date and time. Treated as inclusive. | |
| units | No | Optional. Glucose unit for this call. Omit to use the unit configured on the server (OMNI_UNITS). One of: "mmol" (mmol/L) or "mgdl" (mg/dL). Pass only to override the configured unit for this one call. | |
| upper | No | Optional. High (hyper) boundary in the chosen unit; readings above it count as time-high. Omit to use the server default (OMNI_UPPER). Pass only to override for this one call. | |
| granularity | No | Optional (default: "month"). Calendar bucket size. Only used when mode is "calendar". One of: "day", "week", "month", "quarter". | month |
| fixedSizeDays | No | Optional (default: 7). Length of each bucket in days. Only used when mode is "fixed". |
TDQS
Does the description disclose side effects, auth requirements, rate limits, or destructive behavior?
With no annotations provided, the description carries the full burden, and it delivers: it explains that buckets are computed independently rather than by averaging averages, details insulin aggregation rules for bolus versus basal, and discloses observedDays/coverage percentages so the agent can judge trustworthiness. It also describes the exact return shape, which is critical given no output schema.
Agents need to know what a tool does to the world before calling it. Descriptions should go beyond structured annotations to explain consequences.
Is the description appropriately sized, front-loaded, and free of redundancy?
The description is long but every section earns its place: use-case framing, computation semantics, insulin rules, trust metrics, and a complete return-field listing. It is front-loaded with the primary purpose and avoids filler or repetition.
Shorter descriptions cost fewer tokens and are easier for agents to parse. Every sentence should earn its place.
Given the tool's complexity, does the description cover enough for an agent to succeed on first attempt?
Given the tool's complexity, 8 parameters, and no output schema, the description is unusually complete. It documents the full return structure, covers edge semantics like independence of buckets and observedDays trust metrics, and complements the schema's timezone caveats and parameter documentation. Nothing essential for correct invocation appears missing.
Complex tools with many parameters or behaviors need more documentation. Simple tools need less. This dimension scales expectations accordingly.
Does the description clarify parameter syntax, constraints, interactions, or defaults beyond what the schema provides?
Schema coverage is 100%, with all parameters, defaults, enums, and units already documented in the input schema. The description adds useful context about bucket independence and returned fields, but it does not materially expand parameter-level meaning beyond what the schema already provides, so the baseline of 3 applies.
Input schemas describe structure but not intent. Descriptions should explain non-obvious parameter relationships and valid value ranges.
Does the description clearly state what the tool does and how it differs from similar tools?
The description uses a specific verb and resource: it returns glucose, insulin, and carb aggregates split into time buckets across a span. It clearly distinguishes this from other tools by framing it as a multi-period trend comparison, and the title reinforces the bucketed trend concept.
Agents choose between tools based on descriptions. A clear purpose with a specific verb and resource helps agents select the right tool.
Does the description explain when to use this tool, when not to, or what alternatives exist?
It explicitly says to prefer this tool over making many separate summary calls for multi-period comparison. It explains the benefit — 12 correct rows in a single call without pulling raw data — which gives an agent a concrete decision rule for when this tool is appropriate.
Agents often have multiple tools that could apply. Explicit usage guidance like "use X instead of Y when Z" prevents misuse.
TDQS
Every tool targets a clearly distinct analytical purpose: overview aggregates, time-bucketed trends, circadian patterns, raw glucose, bolus-level detail, basal states, settings history, device-change markers, and chart data vs. rendered charts. Descriptions explicitly cross-reference alternatives (e.g., get_chart_series vs. get_chart_html), so an agent can reliably choose the right tool.
All 12 tools follow the same `get_<domain_specific_noun>` pattern, making the surface predictable and easy to scan. Names like get_diabetes_summary, get_daily_insulin, and get_settings_history clearly indicate both the action and the data being retrieved.
Twelve tools is a well-scoped size for a diabetes data analytics server: each tool covers a meaningful slice of the domain without redundancy or bloat. The count is comfortably within the ideal range and every tool appears justified by a distinct use case.
The set covers the core read-only query workflows end to end: high-level summaries, trends, raw CGM readings, chart rendering, bolus and basal insulin analysis, settings history, device events, and meal-window investigation. Cross-references between tools (e.g., meal analysis pointing to bolus log, chart rendering to raw glucose) leave no obvious dead ends for an agent.
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