ScienceShot science reference

Was du damit machen kannst

Für diesen Server haben wir noch keine Zusammenfassung in einfacher Sprache geschrieben. Unten stehen die Fakten, die wir aus der Registry gelesen haben.

• Verbindung: Läuft in der Cloud
• Transport: Streamable HTTP
• Kategorie: Sonstiges

Installation

Wähle die KI-App, die du nutzt, und kopiere die Einstellungen.

Du brauchst

• Läuft in der CloudNichts zu installieren; die Verbindung läuft übers Internet

Welche App nutzt du?

https://scienceshot.com/mcp

claude mcp add --transport http science https://scienceshot.com/mcp

{
  "mcpServers": {
    "science": {
      "url": "https://scienceshot.com/mcp"
    }
  }
}

{
  "servers": {
    "science": {
      "type": "http",
      "url": "https://scienceshot.com/mcp"
    }
  }
}

https://scienceshot.com/mcp

Deine Auswahl bleibt in einem Cookie auf diesem Gerät; kein Konto nötig.

Diese Einstellungen werden aus dem Registry-Eintrag des Entwicklers erzeugt. Wenn in der README etwas anderes steht, folge der README.

Was er kann

Tool-Namen und -Beschreibungen genau so, wie der Server sie am 7. Nov. 2026 gemeldet hat. Geschrieben hat sie der Entwickler, nicht wir; wir zeigen sie als reinen Text.

• search_scienceshot

  Search ScienceShot's science reference pages and articles on radiation and particle physics, photonics, electronics and quantum physics. Returns up to 5 pages with title, date, link and summary.

• photon_energy

  Convert vacuum wavelength, frequency, spectroscopic wavenumber and photon energy with CODATA 2018 constants. Returns photon rate for optical power, photons per joule, momentum and all matching overlapping ISO 21348 spectral categories.

• blackbody_spectrum

  Calculate both Wien peaks, Planck peak spectral radiances and Stefan-Boltzmann radiant exitance for an ideal blackbody from 1 K to 100000 K. Numerically integrates the fraction of total power in a wavelength band, default 380-760 nm, using shared CODATA 2018 constants.

• semiconductor_carriers

  Calculate Varshni bandgap, intrinsic and doped equilibrium carriers, Fermi level above the valence edge and conductivity for Si, Ge or GaAs. Assumes fully ionized dopants and non-degenerate statistics; conductivity uses fixed 300 K low-field mobilities and the result flags degene

• noise_calculator

  Calculate Johnson-Nyquist thermal noise voltage, current and available power kTB, Schottky shot noise, noise figure and noise temperature (290 K reference), input noise floor and SNR in dB, and the ideal ADC quantization SNR (6.02 N + 1.76 dB) with ENOB from a measured SINAD. Cla

• radioactive_decay

  Calculate parent and daughter activities using NuDat 3 half-lives and branching. Supply an isotope ID, initial activity and elapsed time with units.

• xray_spectrum

  Calculate a tungsten tube spectrum, mean energy (fluence-weighted), aluminium and copper half-value layers, air kerma and the fraction of kerma removed by added filters. Uses SpekPy 2.5.4 with 12 degree anode and 2.5 mm Al inherent filtration; interpolates continuum on normalized

• cosmic_dose

  Calculate the cosmic-ray ambient dose equivalent rate H*(10) and effective dose rate E (ICRP 116), in uSv/h, inside an aircraft cabin (0-20 km) or on the ground (0-6 km), for a latitude, longitude and solar activity, and the effective dose of a stay or flight at that place. Uses

• gamma_dose_rate

  Compute a point-source air-kerma rate constant from listed NNDC photon lines and NIST air energy-absorption coefficients, with resolved LNHB photon supplements. Apply activity and inverse-square distance with optional line-by-line shielding; collision air kerma (mu_en/rho) is not

• synchrotron_loss

  Calculate dipole synchrotron energy loss per turn, radiated power per beam and critical photon energy in an isomagnetic ring. Give total beam energy including rest energy, beam current and exactly one bending radius or dipole field; an optional circumference returns revolution fr

• bragg_peak

  Calculate proton CSDA range, stopping power, Bragg peak, distal R80 and relative dose per fluence in water or ICRU soft tissue. Uses Bethe range and Bortfeld (1997) with Gaussian straggling and initial energy spread; tissue is water-equivalent and energies above 200 MeV are extra

• diffraction_grating

  Solves the signed reflection grating equation and ideal Rayleigh resolution from Hecht, Optics, 5th edition and the MKS Newport handbook. Returns allowed order bounds, angular dispersion, illuminated groove count, linewidth, Littrow angle and local approximate free spectral range

• photodiode_responsivity

  Converts external quantum efficiency and responsivity using CODATA 2018 h, c and e, and computes photocurrent and unity-gain shot noise following Hamamatsu. Returns dark and illuminated shot-noise NEP, sourced Si/Ge/In0.53Ga0.47As bandgap thresholds and LED photon energy; exclude

• gaussian_beam

  Gaussian propagation and thin-lens focusing from Siegman, Lasers (1986), with ISO 11146 beam propagation ratio. Returns Rayleigh range, radius, curvature, Gaussian-model Gouy phase, half-angle divergence, focused waist, depth of focus and peak intensity; phase and intensity for M

• fibre_link_budget

  Power margin and fixed-component power reach from ITU-T G.652.D cable attenuation maxima. Returns chromatic broadening and a dispersion-limited estimate using explicit spectral width and allowed bit-period fraction; excludes chirp, PMD, nonlinearities, overload and compensation.

• microstrip_impedance

  Calculate microstrip impedance and effective permittivity with Hammerstad-Jensen (1980) thickness correction. Returns Wheeler (1977) zero-thickness synthesis and a separate thickness-corrected H-J target width; dispersion and losses are ignored.

• qubit_coherence

  Calculate single-qubit average fidelity under Markovian amplitude/phase damping using Nielsen (2002). Accept T1, T2 or Tphi and gate time; checks T2 <= 2T1 and returns pure dephasing, error per gate and an independent-error depth proxy, not a circuit-success guarantee.

• hydrogen_spectrum

  Calculate reduced-mass Rydberg vacuum and standard-air wavelengths, level energies and ionization energies for H, D or a one-electron ion. Supply integer lower and upper levels; custom ions need Z and a bare nuclear mass in kg. Air uses Edlen (1966), dry air at 15 C and 101325 Pa

• quantum_tunnelling

  Calculate the exact transmission coefficient of a one-dimensional rectangular potential barrier for an electron, proton or alpha particle, below or above the barrier height. Give particle energy and barrier height in eV and barrier width in nm; the result adds the WKB exponential

• convert_radiation_units

  Convert a radiation value between units of the same quantity. Gy and Sv are never converted into each other: that needs a radiation weighting factor.

• photon_attenuation

  Narrow-beam photon attenuation from NIST XCOM. Give thickness in mm and energy in keV.

• energy_loss

  Bethe and Landau thin-absorber estimates and a CSDA range for a heavy charged particle. The range is truncated at beta*gamma 0.05; give momentum or kinetic energy and thickness.

• material_properties

  Density, Z/A, mean excitation energy, radiation length, nuclear interaction and collision lengths, electron critical energy, Moliere radius and available melting and boiling points for 17 materials. Lengths are returned in g/cm2 and cm using the library density, alongside the NIS

• detector_signal

  Most probable and mean electron-hole pairs, collected charge, energy deposit and Landau FWHM. Assumes full collection without gain; Si at 300 K, Ge at 77 K. Defaults: muon, 3000 MeV/c, silicon, 300 micrometres.

• landau_distribution

  Heavy-particle energy-loss distribution with MPV, Landau FWHM, finite-transfer Bethe mean, xi, kappa, regime, peak constants and 161 Landau density points. Gaussian regimes include sigma_mev; the returned Landau curve is then inapplicable. Defaults: muon, 10000 MeV/c, silicon, 30

• device_ledger_query

  Query the ScienceShot QEP device ledger: published measurements of qubit coherence (T1, T2), single- and two-qubit gate fidelity, readout fidelity and gate time on superconducting, trapped-ion, neutral-atom, semiconductor-spin, defect-spin and photonic devices, one cited row per

Basischecksi

Wir prüfen Informationen, die jeder sehen kann; den Code haben wir nicht gelesen. Checks, die nicht zutreffen, werden nicht mitgezählt. · Geprüft am 7. Nov. 2026

• ! Vorsicht

  Entwickler passt zum Repo

  Die Registry nennt kein Quell-Repo, deshalb können wir den Herausgeber (scienceshot.com) nicht dem Code zuordnen

• … Noch nicht geprüft

  Wird noch gepflegt

  Dieses Repo haben wir noch nicht von GitHub gelesen

• … Noch nicht geprüft

  Hat eine Lizenz

  Dieses Repo haben wir noch nicht von GitHub gelesen

• ✓ Bestanden

  Endpunkt antwortet

  Antwort in 950 ms (HTTP 200)

• – Nicht zutreffend

  Anmeldung mit OAuth

  Keine Anmeldung nötig

• ✓ Bestanden

  Keine versteckten Anweisungen in Tool-Beschreibungen

  Wir haben 26 Tool-Beschreibungen gelesen und keine versteckten Anweisungen an die KI gefunden

Im Vergleich mit anderen in Sonstigesi

• Mehr Sterne als 0 % der anderen 18345 Server in dieser Kategorie
• Neuer in der Registry veröffentlicht als 100 % der anderen 18345 Server in dieser Kategorie
• Basischecks gleich gut wie oder besser als bei 36 % der anderen 18345 Server in dieser Kategorie

Verglichen mit allen aktiven Servern dieser Kategorie in der Registry. Sterne zählen nur, wenn dem Herausgeber das Repo gehört.

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README vom Entwickler

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