Starfleet Equipment
Created by Commodore Wilkan Targaryen on Wed Jan 3rd, 2024 @ 10:48pm
Starfleet Equipment
Standard Equipment
Communicator Badge
The Starfleet Communicator Badge, colloquially known as a combadge, is a vital piece of standard-issue equipment that facilitates voice communication between personnel, starships, and planetary bodies via subspace channels. Fashioned into the iconic Starfleet emblem and worn on the left breast of the uniform, the device is constructed of micromilled duranium overlayered with gold and silver alloys through a diffusion-bonding process. The heart of the internal electronics is the subspace transceiver assembly (STA), which incorporates an analog-to-digital voice encoder and a low-power subspace field emitter. This STA utilizes efficient encryption algorithms changed on a random schedule—galaxywide by Starfleet Command or locally during away missions—to ensure secure transmissions. Power is supplied by a sarium krellide crystal rated for two weeks of normal use, which produces a faintly audible oscillation when nearly depleted and can be replenished via induction recharging.Operation of the combadge is initiated by a simple touch or through voice activation. A dermal sensor built into the device confirms the user's biometric credentials, responding to specific bioelectrical fields and temperature profiles to prevent unauthorized use. While the intraship communication system constantly monitors and routes transmissions, the manual tap is a critical practice for preserving battery power during away missions. Once active, internal software connects with a starship’s main computer to route messages to the appropriate receiver or to process information queries. Complex subroutines analyze conversations for voice commands, while the channel remains open until the user taps the badge again, issues an "out" command, or remains silent for 30 seconds, at which point the Communications Officer is notified for follow-up.
As a critical linguistic tool, the combadge incorporates a universal translator capable of interpreting conversations by comparing spoken phonemes to an internal library of over 300 languages. If the device cannot translate a language locally, it utilizes a background connection to the main computer of the Enterprise for deeper analysis. The system is designed for two-way communication, translating the dialogue for both the transmitter and the receiver simultaneously. This functionality is an evolution of earlier 23rd-century models that utilized an antenna lattice and manual frequency controls to achieve similar linguistic results.
The effective range of a stand-alone communicator is approximately 500 kilometers when transmitting between two independent badges. However, when a starship acts as the active partner, this range extends significantly to 60,000 kilometers or more than 100,000 kilometers with mothership support. The badge also functions as a locator beacon, broadcasting a unique identification signal used to track crew members and establish a precise transporter lock. In the event of an emergency, the combadge can be modified into a subspace distress beacon or can automatically emit a signal if damaged.
Advanced safety features include a type-7 phase discriminator and a subspace emitter which allow the badge to function as an Emergency Transport Unit. This circuitry can remotely trigger a ship's transporter for an immediate beam-up without the need for verbal communication. For extreme survival situations, a portable transporter module is included, providing a single, one-way transport to a preprogrammed destination. Beyond audio contact, the badge allows shipboard personnel to view the wearer's location on a duty console, though visual communication is restricted to the shipboard viewscreen and does not manifest on the badge itself.
Personal Access Display Device (PADD)
The Personal Access Display Device, commonly known as a PADD, is the most ubiquitous piece of computing technology in the known galaxy, serving as a high-capacity handheld terminal for both Starfleet personnel and civilians. Historically, PADDs were constructed from three layers of circuit-composite material bonded to a rugged boronite whisker epoxy casing, designed to withstand significant physical trauma such as drops from heights of up to 35 meters. The 2439 model used aboard the Enterprise has evolved into a minimalist design where the only physical component is a portable polyduranium housing. This compact frame contains the core hardware essentials: a positronic memory chip, a sarium krellide power cell, and a high-output holographic emitter.Modern PADDs utilize two distinct functional modes to accommodate different work environments: Desktop and Tablet. In Desktop Mode, the device is placed on a flat surface, and internal holoemitters project both a virtual monitor and a tactile holographic keyboard for the operator. Tablet Mode provides a more mobile experience by projecting the monitor alone, relying on touch-sensitive holographic areas or verbal instructions for input. When sensitive data is accessed, the projected holographic display can be configured to turn opaque, ensuring confidentiality from unauthorized observers. This holographic interface is a significant advancement over the 24th-century models, which relied on fixed, multilayered LCARS display screens and electrosensitive casing areas for data manipulation.
The internal sarium krellide power cell has been significantly improved, now supporting up to five days of operation on a single charge, a substantial increase over the 16-hour limit of mid-24th-century units. These devices are normally induction-recharged when not in use; however, if a battery nears exhaustion, the PADD can set a memory flag in the ship's main computer to transfer active tasks to another working unit or suspend them until power is restored. For data storage, the PADD utilizes positronic or isolinear memory chips with a capacity of approximately 4.3 kiloquads. Like the tricorder, the PADD can execute an emergency data dump, transferring its entire memory core to the ship's main computer in less than a second.
Strategic communication and integration are handled by an internal subspace transceiver assembly (STA), which maintains a secure data link with the starship's computer over distances of up to 50,000 kilometers. This allows the PADD to function as a mobile extension of any shipboard workstation, provided the user has the appropriate command clearance. While primarily used for drafting reports, making appointments, or recreation, the PADD is a powerful tool in emergency situations. It can be configured to interface with Conn position bridge controls or transporter systems, theoretically allowing an authorized officer to control every shipboard function—and the starship itself—from any location on the vessel.
Replicator Multitool
Originally created in 2371, the Replicator Multitool was engineered to recreate nearly any small, handheld tool utilized within the United Federation of Planets. The device was initially restricted to civilian sectors and humanitarian emergency response kits, as the Starfleet Corps of Engineers deemed it unreliable when exposed to specific radiation types. However, during the severe resource shortages of the late 24th Century following the Attack on Mars, Admiral Edward Jellico overrode these standing restrictions and approved the Multitool for official Starfleet service.The device employs a sophisticated combination of holographic and micro-replicator technology to materialize tools from an internal database. While early models were constrained by the storage limits of isolinear technology, the integration of positronic chips in the 25th Century significantly expanded the available tool library. To operate the unit, a user selects the desired implement via a touchscreen interface built into the surface of the device. Upon selection, internal forcefield projectors and miniaturized replicator emitters housed within the handle generate the tool in under five seconds, utilizing the Multitool itself as the permanent handle for the replicated attachment.
Because the Multitool must continually draw energy from its internal sarium krellide power cell to maintain the replicated structure, high-energy tools can occasionally overwhelm the power supply during prolonged operations. Furthermore, despite the advanced processing power of its positronic core, overall memory constraints require the use of specialized, swappable memory chips to store the vast pattern buffers required for specific engineering or medical disciplines.
Tricorder
The Starfleet Tricorder, an evolution of the original Tri-function Recorder, is a sophisticated all-purpose sensory, computing, and recording tool utilized by Starfleet personnel. While 23rd and 24th-century models such as the TR-580 and TR-590 featured a handheld, clam-shell design constructed of micromilled duranium foam, the 2439 model used aboard the Enterprise has evolved into a wearable wrist-mounted device. This modern unit is significantly smaller than its predecessors, housing the device’s communications arrays, processing blocks, sarium krellide energy cell, and miniaturized sensors in a space comparable to a 21st-century smartwatch. Despite its reduced footprint, it retains the rugged durability of earlier models, which were engineered to function in extreme temperatures and hostile environments.The primary interface of the wearable tricorder is located on the upper surface of the wristband, where tactile controls for scanning functions are situated. In a departure from the LCARS touchscreens used in the 2360s, this model utilizes a built-in holographic emitter diode to project data analysis into a three-dimensional image that floats above the user's wrist. This omnidirectional holodiode array can highlight items of interest or project a traditional two-dimensional interface if preferred. These controls are often replicated within the holographic projection, allowing for ease of use even when wearing gloves or operating in low-visibility conditions. The device also incorporates a built-in Subspace Transceiver Assembly (STA), enabling it to network with other units to increase processing power or connect to a starship’s main computer for complex data analysis.
Power for the tricorder is supplied by a single rechargeable sarium krellide crystal. This cell provides up to 1,000 hours of intermittent routine use or 36 hours of continuous, full-instrument activity, a significant advancement over the 18-hour limit of 24th-century handheld models. The device's sensor assemblies are embedded directly into the wristband and include a combination of mechanical, electromagnetic, and subspace devices. These sensors provide a directional field-of-view for high-resolution readings as well as omnidirectional monitoring of the surrounding environment. The effective range for these miniaturized arrays is 5 kilometers for long-range sweeps and 50 meters for high-detail short-range scans, though external forces such as thoron particles, ionic interference, or electromagnetic storms can disrupt these readings or decrease accuracy.
The tricorder is capable of multitasking, allowing it to perform routine investigations while simultaneously conducting complex, in-depth analysis of a subject. Sensor readings are compared against vast internal library databases, which can store kiloquads of information on energy sources, lifeforms, and chemical compositions. Biological scans can identify species and health status, while geological scans locate mineral deposits or concealed caves, and meteorological scans analyze atmospheric compositions and weather patterns. In the event of a crisis, the device features an emergency data dump mode, utilizing a high-speed communications link to transmit the entirety of its database to a starship in less than a second.
Tricorder Scan Types | ||
|---|---|---|
| Biological | A Tricorder can identify the species of a lifeform (if known to the Federation) or the type of lifeform as well as the lifeform's health status. | A Tricorder will detect and track the position of lifeforms within scanning range. |
| Geological | The Tricorder can locate caves, small concentrations of mineral deposits, or concealed geological features. The chemical composition of a subject can also be determined. | Large caves, significant mineral deposits, and large geological features can be detected. |
| Meteorological | Scans will determine the atmospheric composition of the local area and small-scale energy sources. | Large energy sources within range will be detected by this scan type, local weather patterns analyzed, and interference identified. |
Peripheral Modules
While the standard-issue Tricorder is a powerful, all-purpose sensing tool, Starfleet Logistical Support has developed specialized models to provide the comprehensive analysis required for complex investigations. These enhanced units utilize a Tricorder Peripheral Module—a dedicated sensor and processing attachment measuring approximately 8.5 x 3.0 x 3.0 centimeters—which clips onto the underside of the main chassis. Each peripheral houses a removable, high-resolution hand scanner that operates via a secure wireless connection. While the Tricorder can perform broad scans independently, the hand scanner is essential for intensive, close-range data collection, achieving peak accuracy when held within five meters of the subject.
Engineering Tricorder Peripheral
The Engineering Tricorder is specifically modified to locate and diagnose faults in high-energy technological systems, such as warp drives and EPS conduits. It incorporates a high-resolution probe that cross-references scanned data against an extensive internal database of all known Starfleet and alien starship technologies. When the unit is open, it reveals specialized controls and readouts not found on standard models, though this precision comes at a cost: its effective sensor range is reduced by half, and its ability to detect biological signatures is significantly diminished. By analyzing quantum structures and energy transfer rates, the unit provides engineers with a recommended course of action for rapid system recovery.
Medical Tricorder Peripheral
The Medical Tricorder integrates dedicated life-sign sensors and library modules containing biological data for humans, humanoid types, and over 210 non-humanoid species. The display can be configured to duplicate a sickbay biobed monitor, providing real-time data on heart rate, blood pressure, and organ function. The detachable high-resolution scanner allows for internal multiplane scans to identify scar tissue or alien anatomical structures. While it can provide limited post-mortem assessments, its accuracy is highest when monitoring living subjects. The unit operates on sarium krellide crystals and stores data on palm-sized library disks, ensuring it remains fully functional even when out of range of a ship's primary computer.
Psychotricorder Peripheral
For psychological and counseling purposes, the Psychotricorder aids in analyzing a patient's mental health by scanning specific brainwave patterns during directed questioning. By comparing active neural signatures against internal records of mental ailments and disorders, the device assists counselors in forming a diagnosis. It features specialized subroutines for amnesia analysis, lie detection, and a hypnosis-assist mode. However, the Psychotricorder is not infallible; because it relies on interpreting shifting neural states, it requires a trained operator and generally produces the most reliable results with a willing participant.
Security Tricorder Peripheral
Optimized for forensic analysis and tactical operations, the Security Tricorder is designed to detect hidden weapon systems, identify energy signatures from recent discharges, and gather crime-scene evidence. Its specialized sensor array is capable of interfacing with foreign computer systems to bypass authorization codes, often deploying autonomous subroutines to access encrypted data. Beyond combat and forensics, these units possess surprising versatility, frequently being used to monitor electromagnetic phenomena or even perform specialized medical tasks, such as monitoring fetal development in the field.
Type I Hand Phaser
Phasers, short for PHASed Energy Rectification, are the standard defensive weapon used by Starfleet and are constructed of nano-bound polyduranium and other synthetic materials. Assigned to all Starfleet personnel, planetary security forces on Federation worlds, and even some civilians, Type I Phasers are designed to be discreetly carried during away missions, diplomatic assignments, and routine operations. As the smallest personal weapon available, its minuscule size provides the advantage of discretion, making it the primary choice for sensitive missions where a more obvious weapon would be inappropriate. Following the Bajoran inspired refits of 2437, this unit features a unibody construction and is not integrated into the larger Type II Phaser Pistol, remaining an entirely separate and independent sidearm.Employing a rapid nadion effect and a single LiCu 521 superconducting elliptical emitter crystal, the Type I emits powerful energy beams for both tactical and utility applications. While the larger Type II is capable of pulse and patterned discharges, the Type I is limited to firing energy beams and does not feature a pulse mode. It offers only two separate power settings, including stun and kill. To comply with local planetary regulations and shipboard safety, the unit features software restricting the weapon to the stun setting by default, although an authorized officer can override this restriction to allow higher settings. Additionally, the Starfleet model incorporates a safety bypass that allows the unit to overload and act as an explosive if necessary.
Molded to fit comfortably within the palm of a humanoid hand, all essential components in the Type I Phaser are stored within its compact body, including an internal sarium krellide power cell that provides 100 charges before requiring a recharge through the Enterprise's EPS Taps. The trigger is located on the top of the weapon at the base of a small operator's panel. This panel serves as the primary interface, allowing the user to control the power level and monitor a digital display showing the remaining charges until the ammunition is depleted. While an optional modification allows the Type I to fire beams more quickly than the standard model, this adjustment is known to reduce the overall accuracy of the weapon during discharge.
Phaser Type I Power Settings | |||
|---|---|---|---|
| 1 | Stun | 2 | Stun a Human for 15 minutes or a Klingon for 5 minutes. |
| 2 | Kill | 10 | Kill a humanoid. |
| Overload | 50 | Vaporizes all objects within 5 meters of the Phaser. | |
Uniform
The Starfleet Working Uniform is a rugged, utilitarian garment engineered for high-intensity environments, combat scenarios, and hazardous duties where standard duty attire would be impractical. Heavily influenced by the practical aesthetics of the early 23rd century, this uniform is crafted from a high-density, heavy-duty fabric specifically designed to resist snags, tears, and abrasions from jagged machinery or environmental hazards. Additionally, the textile composition provides integrated flame resistance, offering a critical layer of thermal protection for engineers and security teams.The uniform's color palette features a base of Federation blue, accented by a distinctive navy-blue pattern along the flanks. This darker scheme was strategically selected to mask the inevitable grease, dirt, and wear accumulated during industrial or tactical assignments. Unlike the more formal duty variants, the Working Uniform is strictly limited to a trouser-and-jacket configuration to maximize mobility and safety, paired with reinforced black safety boots as standard issue. The jacket itself features a split cowl collar and a slightly diagonal zipper closure.
As with contemporary 2439 standards, personnel wear a Combadge with the rank of the officer displayed through a series of bars positioned behind the Starfleet delta on the chest. Departmental identification is intentionally subtle on this variant. While other uniforms use large blocks of color to denote division, the Working Uniform restricts these colors to the piping of the zipper closure. Current colors include:
- Command: The Command Division is responsible for the administration of starships, starbases, and space stations. These personnel are distinguished by red coloration.
- Operations: The Operations Division is the backbone of Starfleet and incorporates the engineering, operations, and security departments. This group is responsible for technological innovation and for maintaining and defending the Federation and typically wear uniforms with gold coloration.
- Science: The Sciences Division is the heart of Starfleet and comprises members of the exploratory, medical, and mental health departments within the fleet. Science personnel are identified by uniforms with teal coloration.
- Service: The Service Division fulfills all support roles within Starfleet and are identified by uniforms with silver coloration.
Engineering Equipment
Engineering Kit
Starfleet Engineering Kits are specialized equipment cases designed to facilitate the repair and maintenance of complex systems during away missions, crises, or emergency response scenarios. These kits are standard issue for all Engineering personnel and are built with extreme durability in mind, utilizing polyduranium foam inserts to protect sensitive internal components from physical shock and environmental hazards. Unlike the general-purpose toolkits of the 23rd century that were largely supplanted by the versatility of the tricorder, the modern kit provides a comprehensive array of physical tools necessary for manual hardware manipulation that electronic diagnostics alone cannot accomplish. Each unit features a compact chassis with an integrated handle for portability and an internal processor that aids the user in complex maintenance troubleshooting and space-time monitoring.A core component of the kit is the Engineering Tricorder Peripheral, which utilizes enhanced sensors and analysis software to perform high-energy fault detection that standard scanners might miss due to electromagnetic interference. For detailed matter analysis, engineers utilize an integrated mass spectrometer. This device can break down material samples to provide data far beyond the reach of a standard tricorder, such as isotope dating accurate to within months or identifying elemental quantities to the parts per quadrillion. Additionally, the kit includes a handheld chronometer, which monitors hundreds of pulsars and subspace gravity waves to measure time at Planck-scale accuracy. This allows engineers to detect localized relativistic effects or space-time distortions that differ from the ship’s primary chronometer.
For physical repairs and system realignments, the kit contains several essential handheld devices. The Hyperspanner is a cylindrical tool roughly 40 centimeters long used for repairing relays, realigning circuits, and securing fasteners; its versatility ranges from disarming delicate bomb triggers to repairing high-power plasma injectors. A smaller, pocket-sized alternative is the Sonic Driver, which uses sound waves to remove or replace fasteners rapidly without manual force. To manage the dangerous energy flows within a starship, engineers use Magnetic Probes and Gravitic Calipers. The Gravitic Caliper is used to reroute plasma flows to isolate components without a total system shutdown, while the Magnetic Probe allows for the direct manipulation of warp core antimatter flows. This requires precise polarity alignment to prevent catastrophic explosions, as the probe’s magnetic field must prevent the device from ever making physical contact with the antimatter stream.
The kit also provides various precision cutting and welding tools. The Plasma Torch is a cylindrical general-purpose cutter that uses a super-heated, ionized helium beam focused by magnetic fields to slice through advanced hull alloys. For tasks requiring even greater precision, the Micro-optic Drill can create holes of variable diameters, including those at a microscopic level. These are supplemented by laser-based tools, such as laser welders for standard metal joining and laser torches for precise material crafting on wood, stone, or metal. While these cutting tools are indispensable for engineering, their high energy output means they can be used as makeshift weapons in hostile environments, though they are significantly less effective than purpose-built phasers.
Field Modulator
The modern Field Modulator is a versatile, tripodal device standing approximately 1.5 meters tall, developed by the Starfleet Corps of Engineers as a direct response to the resource and personnel shortages. By consolidating several previously distinct technologies into a single lightweight, chrome-colored package, Starfleet significantly improved the efficiency of equipment deployment for away teams and emergency responders. This multi-function unit features a clear narrow dome at its apex that glows upon activation and can be easily transported in a hinged, tri-fold protective case designed to cushion the sensitive internal components from the rigors of travel.In its capacity as a forcefield tool, the device can both disable and generate energy barriers. As a field destabilizer, a pair of modulators can be positioned on either side of an opening to scan for and determine the resonance frequency of an active forcefield. Once calibrated, they emit a destructive interference pattern that negates the field without the need for dangerous phaser overloads, though they remain ineffective against high-powered starship deflector shields or advanced variable-frequency Borg technology. Conversely, the device can act as a portable forcefield generator, allowing personnel to establish invisible, airtight walls or containment domes. These barriers are uniquely tuned to permit the passage of individuals wearing authorized combadges or carrying tricorders while maintaining a strict quarantine seal. Further, the field technology can be used to produce a quantum stasis field to forcefully prevent Changelings from shape-shifting.
The Field Modulator is equally indispensable for transporter operations, particularly when configured as a pattern enhancer. When three or more units are placed equidistant around a target—typically in a triangular formation seven meters apart—they link together via thin blue energy beams to boost the molecular pattern of an object or life form. This amplification allows transporter systems to achieve a signal lock through electromagnetic shielding, dense terrain, or atmospheric disturbances that would otherwise make transport fatal. Each unit’s onboard power cell is typically rated for two transport cycles, and they can be activated with a simple counterclockwise twist of the dome and midsection casing.
Alternatively, the device can function as a transport inhibitor to secure a location against unauthorized beam-ins. In this mode, the modulator emits tetryonic radiation or a variable energy field that causes a transporter's annular confinement beam to dissipate, preventing a pattern lock. A single unit can protect a circular area with a 10-meter radius, while a strategically arrayed network can shield a region spanning several hundred meters. Finally, the device serves a vital diagnostic role as a test cylinder, utilizing a varietal molecular matrix to simulate organic and inorganic compounds, allowing engineers to verify transporter accuracy and safety before personnel use the system.
Medical Equipment
Hypospray
The hypospray is a high-pressure medical device used by Starfleet to noninvasively extract or inject liquids into a humanoid body through a pinpoint microscopic aerosuspension stream. Originally descending from primitive needle-based hypodermic syringes, the modern hypospray utilizes a compressed air or gas mechanism to force low-viscosity medication through the epidermis and into the subdermal layer, musculature, or bloodstream without mechanical penetration. This pain-free method significantly reduces the risk of infection at the injection site because the skin is never punctured. Because the device never comes into direct contact with a patient's blood during injection, a practitioner can administer medication to multiple patients in rapid succession without the risk of spreading blood-borne illnesses.The current design, introduced in the early 2430s, consists of an ergonomic metallic body designed to fit comfortably in the palm of a hand with a specialized angled head to ensure the nozzle remains as close to the skin as possible. A practitioner selects a color-coded, transparent cylindrical vial of medication and inserts it into the base of the device, where it remains separate from the nozzle to prevent leakage. The user can then adjust controls on the head of the hypospray to set the dosage level and the spray pattern width. A narrower setting allows the medication to penetrate deeper into the tissue, while a wider spray pattern yields a higher absorption rate by exposing a larger area of the epidermis to the drug. Common medications found in these vials include stimulants, sedatives, local anesthetics, and other specialized compounds.
To administer the drug, the practitioner presses the nozzle against the patient, typically targeting the carotid artery in the neck or the upper arm, and activates the trigger with their thumb. The process is accompanied by a distinctive audible hiss as the aerosuspension stream passes through the skin or clothing. In addition to the standard model, Starfleet Medical issues a specialized field hypospray in every medikit for use during emergencies outside of sickbay. Unlike the standard unit that takes a single vial, the field version is pre-loaded with an inert saline vehicle and five selectable concentrated medication ampules which are automatically diluted upon activation.
Further modification expanded the utility of the hypospray by allowing for the extraction of biological samples. By inserting an empty vial and adjusting the exterior nozzle settings for suction rather than injection, a doctor can place the device against a vein to draw blood, other fluids, or even air for immediate analysis. This versatile tool remains a staple of Federation medicine, saving lives by providing a durable, flexible, and hygienic means of treating a wide variety of divergent alien species.
Common Medications | |||
|---|---|---|---|
| Alkysine | Neurostimulant | ||
| Anesthezine | Anesthetic | ||
| Anetrizine | Anesthetic | ||
| Arithrazine | Treats Radiation Exposure | ||
| Axonol | Anesthetic | ||
| Cervaline | Antirejection medication | ||
| Chloromydride | Cardiostimulant | ||
| Cordrazine | Stimulant | ||
| Corophizine | Antibiotic | ||
| Cortolin | Pulmonary Stimulant | ||
| Delactovine | Stimulant | ||
| Dermaline | Burn Treatment | ||
| Dexalin | Counteracts Oxygen Deprivation | ||
| Dylovene | Antitoxin | ||
| Hydrocortiline | Pain Relief | ||
| Hyronalin | Treats Radiation Exposure | ||
| Inaprovaline | Cardiostimulant | ||
| Kayolane | Sedative | ||
| Lectrazine | Cardiovascular and Renal Stabilizer | ||
| Melorazine | Sedative | ||
| Retinax | Optical Stimulant | ||
| Terakine | Pain Relief | ||
| Tri-Cordrazine | Stimulant | ||
| Tri-Ox Compound | Pulmonary Stimulant | ||
| Vertazine | Counteracts Vertigo | ||
Medical Kit
Starfleet Medical Kits, also known as Med Kits, are specialized portable equipment packages designed to provide medical professionals with the necessary tools to perform routine and emergency treatments in the field. These kits are encased in a hard, rugged duranium-composite housing, historically colored gray or silver and emblazoned with the caduceus symbol, and are engineered to withstand the extreme environmental stresses of away missions. The current model features a rectangular briefcase design that splits into two halves, protected internally by specialized padding. A single shoulder strap allows a physician to carry the kit while keeping their hands free to assess and treat patients in chaotic or hostile environments.The heart of the Med Kit’s diagnostic capability is the Medical Tricorder, which utilizes enhanced sensors and analysis software to locate injuries and diagnose diseases nearly instantaneously. To address physical trauma, the kit includes a dermal regenerator and an anabolic protoplaser. The dermal regenerator stimulates a humanoid's natural healing process to accelerate the production of new skin cells for superficial wounds, while the more advanced anabolic protoplaser is specifically designed to unite nerves and muscle fibers to repair torn veins and arteries. For surgical needs, the kit contains a laser scalpel, or exoscalpel, which uses a low-power beam to cut cleanly to a predetermined depth. Unlike primitive steel blades, the laser scalpel cauterizes the incision as it cuts, allowing dermal regenerators and auto-sutures to work more effectively during the healing process.
For life-critical stabilization, the Med Kit provides specialized stimulators and neurological tools. The cardiostimulator is a handheld device applied to the chest to regulate irregular heartbeats or restart a stopped heart, serving as a safer and more reliable version of early electronic defibrillators. The cortical stimulator is applied to the patient's head to normalize or restart neural activity, treating seizures, hallucinations, or comas. In extreme cases, it can attempt to revive a humanoid who has recently died, provided traumatic injuries are repaired simultaneously. Neurological trauma is further addressed by the tri-laser connector, which uses laser light to stimulate a stream of stem cells into specializing along neural pathways. This allows for the reconstruction of damaged brain tissue with little to no cognitive loss if the procedure is guided by a recent detailed scan, such as one provided by transporter systems.
Pharmaceutical delivery is handled by the field hypospray, an advanced evolution of needle-free technology. Standard to every Med Kit, the field hypospray is a unique model pre-loaded with an inert saline solution and five user-selectable, concentrated medication ampules that are automatically diluted upon activation. This allows for the rapid treatment of divergent species without the need for individual vials. The kit typically stocks a variety of critical drugs, including anesthezine for pain, stimulants like cordrazine, radiation treatments such as hyronalin, and tri-ox compounds to improve blood oxygenation. For wounds that cannot be immediately closed by regenerators, a spray dressing is used as a sterile alternative to bandages. While these instruments allow for significant field stabilization, including the use of reader tubes for monitoring vital signs, the Med Kit serves as a bridge to ensure the patient survives until they can be transported to a full shipboard surgical suite for comprehensive recovery.
Scientific Equipment
Holographic Imager
The Holographic Imager, commonly referred to as a holoimager or holocamera, is a versatile handheld device engineered to record three-dimensional still and moving images with high-fidelity multi-spectral resolution. While the underlying operating process is fundamentally unchanged since the first photographic systems developed on Earth during the 19th century, the modern unit draws upon advanced technologies from transporter systems, holodeck imaging equipment, and subspace communications components. The device is housed in a rugged, lightweight casing that is designed to be slim and easy to hold despite its complex internal sensors.To capture an image, the user raises the device to eye level and lines up the shot through a rear-mounted viewfinder, which also supplies relevant photometric data. The front of the unit is dominated by a protruding cylindrical lens and an array of sensors used to measure distance, light, and various other parameters required for multiplane scans. When the recording process is initiated—either by pressing a tactile button, using a built-in timer, or providing a verbal instruction to an interfaced computer—reflected light waves and photonic pulses are captured by interferometer-type scanners. This data is recorded onto a high-capacity internal processor chip, allowing for the storage of nearly unlimited still images and thousands of hours of three-dimensional video with resolution down to the micron level.
The holoimager is equipped with its own variable light source to illuminate subjects in low-light environments or at night. Beyond standard visual recording, the device is a powerful tool for Starfleet Science and Medical personnel because its sensor parameters can be extensively modified. By adjusting the resonance spectrum along a subspace band or adding additional modules to the front of the unit, the imager can perform deep body scans at a subatomic level or function as a specialized scanning device for forensic investigations. The resulting output is so detailed that recorded data can be used to recreate entire settings inside a holodeck, providing researchers and investigators with a perfectly accurate computer simulation of the recorded event.
Portable Electron Microscope
Deployed by specialist personnel trained in its operation, the Portable Electron Microscope is an essential instrument for scientific investigations requiring the examination of subatomic particles and quantum structures. In the modern Starfleet era, these units have been miniaturized into a rugged, handheld chassis, allowing a Science Officer to perform laboratory-grade subatomic analysis in the field without returning to the Enterprise. While traditional microscopes rely on photons, this device utilizes high-resolution electron microscopy to achieve a level of detail that would be impossible with standard light-based optics. It is frequently paired with a Science Tricorder, which provides the necessary computational power and sensor data to calibrate the microscope for the specific environmental conditions of an away mission. This immediate feedback is often the difference between identifying a dangerous quantum instability and a harmless geological anomaly. The imaging process begins when the device projects multiple diffracted electron beams through an objective aperture. These beams travel through the sample and subsequently interfere with one another, creating a phase-contrast image that represents the actual atomic structure of the material. This technique allows researchers to visualize the arrangement of individual atoms within a crystalline lattice or the complex quantum signatures of alien technology. The interpretation of these results depends heavily on the physical properties of the specimen. If the samples are sufficiently thin and the microscope’s aberrations are properly compensated for, the resulting images can be directly interpreted to identify the positions of columns of atoms. However, in cases where samples are thicker or the contrast transfer function of the microscope is affected by external radiation, a more rigorous analysis is required. In these scenarios, the device’s internal processors must perform complex calculations regarding the multiple scattering of electrons to resolve the final image accurately.
Sample Container
The modern Starfleet Sample Container, also referred to as a Containment Vessel, is a high-versatility storage unit utilized by science personnel to secure matter or energy for laboratory investigation. Following the catastrophic resource depletion caused by the 2385 Attack on Mars, Admiral Edward Jellico spearheaded a radical streamlining of Starfleet equipment. This led to the replacement of several specialized legacy units—such as dedicated Biological Sample Containers and heavy Containment Cylinders—with a single, universal chassis capable of fulfilling every mission requirement.Constructed to be exceptionally durable, these vessels are engineered to meet a wide array of environmental and physical specifications to ensure the integrity of the collected specimens. Each container features integrated internal emitters that can project reinforced containment fields to secure volatile energy or hazardous materials, alongside stasis fields designed to maintain the biological or molecular stability of the contents. This universal design allows a single officer to transition seamlessly from capturing rare gaseous anomalies to preserving delicate organic tissue samples without the need for specialized hardware.
The integrated sensor suite on the exterior of the container allows for real-time monitoring of the internal environment, ensuring that the fields remain stable during transport back to a shipboard or planetary science facility. By consolidating the diverse needs of Starfleet Sciences into this standardized package, the Federation has successfully reduced the logistical burden on starship inventories while providing away teams with a more reliable and flexible tool for galactic exploration.
Telefocals
Telefocals are advanced long-range optical instruments designed for direct visual observation, serving as a sophisticated evolution of pre-spaceflight binoculars. While the core functionality of the device has remained consistent since its introduction in the 23rd Century, modern iterations have undergone significant upgrades to integrate seamlessly with 25th-century Starfleet sensor arrays.Standard operation provides up to 50x magnification, enabling precise visual monitoring of subjects at extreme distances. These optical capabilities are enhanced by an integrated rangefinder that provides real-time distance data to the user. Unlike legacy models, which required a wireless link to a separate Tricorder for data processing, current generations house internal sensor technology. This allows the Telefocals to perform independent long- and short-range scans, delivering immediate biological, geological, and meteorological data directly through the viewing aperture.
Despite these technical advancements, Telefocals are subject to the same environmental and artificial interference that affects standard-issue Tricorders. When encountering such phenomena, the device’s internal sensors often translate interference into false-color images within the field of view, which can obscure the subject or produce misleading data. Additionally, the high level of magnification creates a tactical trade-off; the narrow field of vision significantly limits the operator's peripheral awareness, making them vulnerable to nearby threats while focused on distant targets.
Security Equipment
Grenade
A grenade is a compact explosive or tactical weapon engineered for high-impact deployment via hand-throwing, grenade launchers, or mortars. Due to their destructive potential, these devices are highly restricted within the United Federation of Planets, with Starfleet personnel authorized to utilize them only during states of open warfare. Each unit is composed of a rimmed, cylindrical base sized for a standard humanoid grip and a rugged synthetic casing topped with a color-coded cap for rapid identification in the field.While often deployed as hand-thrown ordnance, Starfleet grenades are optimized for use as launched projectiles. When fired from an underslung launcher on a phaser rifle, a grenade has an effective range of 400 meters and an accurate range of 180 meters. For long-range suppression, a dedicated mortar can propel these rounds up to 2 kilometers. To use the device as a hand grenade, the operator must flip off the protective plastic cap and depress the activation button, triggering a three-second fuse. Once activated, the device lacks a secondary safety or "abort" feature, and the resulting detonation affects all nearby targets indiscriminately, necessitating careful coordination among away team members.
Starfleet utilizes several specialized grenade types to meet various tactical needs. The Photon (Red) and Quantum (Purple) variants are high-yield explosives capable of vaporizing all objects within a 5-meter and 10-meter radius, respectively. For non-lethal engagement, the Stun (Orange) grenade can incapacitate humanoids for up to an hour or Klingons for 15 minutes within a 10-meter burst area. Technological threats are managed by the Electromagnetic Pulse (Green) grenade, which disables unshielded electronics in a 15-meter radius, while the Forcefield (Blue) variant generates a localized containment dome that persists for five minutes.
Beyond combat and suppression, specialized rounds provide essential utility and signaling. The Flare (Yellow) grenade provides high-intensity illumination for 60 seconds, and the Transport Enhancer (White) acts as a temporary beacon to facilitate transporter locks through heavy interference. Conversely, the Transport Inhibitor (Black) functions as a localized screen to prevent unauthorized transport within its vicinity. This diverse arsenal allows Starfleet Security to adapt to a wide range of hostile environments, provided the mission parameters justify the use of such volatile equipment.
Type II Phaser Pistol
The standard defensive sidearm for Starfleet away missions is the Type II Phaser Pistol, short for PHASed Energy Rectification. Designed by Starfleet Tactical Specialists on Bajor, this model entered official service in 2437 and represents a continuation of the rugged, industrialized "pistol" configuration. This phaser is an all-in-one unit constructed of nano-bound polyduranium and synthetic materials, specifically omitting the smaller detachable Type I unit of earlier generations.The 2437 Type II features a distinctive metallic finish and a long, angled handgrip that ensures a firm, steady grip. This design allows the weapon to rest closer to the body when holstered, making the draw quick and natural. The trigger is a large, touch-sensitive panel button located at the head of the handgrip an was operated by the forefinger. For environmental adaptability, the control interface on the side of the weapon is simplified, allowing for the selection of power levels and beam width even in high-stress situations.
In a return to modular power systems, this phaser utilizes an extractable charging magazine containing a sarium krellide power cell. This magazine slots into the handle and provides 250 charges before requiring a swap or a recharge. A side-mounted ammunition counter provides a real-time display of remaining energy. Internally, the weapon operates through the rapid nadion effect, utilizing four prefire chambers, which is a significant upgrade over smaller hand phasers of the past. These reinforced chambers allow for a 15% increase in energy density and plasma pressure, ensuring the weapon remains effective against advanced threats.
The Type II features internal circuitry that continually changes energy modulation to prevent enemies from adapting to a specific frequency. Users can select from five primary power levels, ranging from light stun to full disintegration. The weapon is capable of several distinct discharge types including pulse, beam, and continuous fire. Pulse discharge is the default setting, created by a collapsible charge barrier in the prefire chambers that breaks down to release a tuned discharge. The phaser can also be modified to fire in a beam to conserve power, though this reduces the effective range. Continuous fire is ideal for utility tasks like cutting through obstacles or heating rock for warmth, while the internal circuitry further allows for preprogrammed firing patterns or wide-arc discharges to impact multiple targets simultaneously.
To ensure these powerful devices remain in authorized hands, the Type II incorporates a code processor and genetic profiling. The weapon will only operate for its designated user; should an unauthorized person attempt to fire it, the phaser will emit a stun pulse. A Subspace Transceiver Assembly (STA) maintains a constant link with the Enterprise main computer, capping phaser output to stun during shipboard operations. While authorized officers can override these limits, the ship's computer monitors all such activities for compliance. In terminal situations, the safety interlocks can be bypassed to initiate a controlled overload, turning the phaser into a makeshift explosive that detonates after a 30-seconds.
Phaser Type II Power Settings | |||
|---|---|---|---|
| 1 | Stun | 2 | Stun a Human for 15 minutes or a Klingon for 5 minutes. |
| 2 | Thermal | 5 | Cut a 1 m hole in 10 cm of steel or rock. |
| 3 | Kill | 10 | Kill a humanoid. |
| 4 | Vaporize | 25 | Vaporize any substance. |
| 5 | Disrupt | 50 | Explode 500 cubic meters of rock into rubble. |
| Overload | 100 | Vaporizes all objects within 10 meters of the Phaser. | |
Type III Phaser Rifle
Phasers, short for PHASed Energy Rectification, are the standard weapon system used by Starfleet. While the Type I and II models are classified as defensive sidearms, Starfleet assigns Type III Phaser Rifles for usage aboard starships and space stations specifically during times of war or extreme danger. Constructed of lightweight nano-bound polyduranium and synthetic materials, the rifle is an offensive weapon designed to be light enough for one-handed operation or hip-firing like a pistol, though it is most effective when used with a conventional two-handed grip. Following the tactical refits of 2437, the Type III was designed on Bajor alongside the Type II Phaser Pistol to share a rugged, industrialized aesthetic and parts compatibility.Operating on the rapid nadion effect, the Phaser Rifle fires concentrated pulses of energy at a target. Internally, a stabilized LiCu 521 superconducting crystal converts stored energy into a tuned discharge with an efficiency of approximately 86.6 percent. To counter the adaptive technology of threats like the Borg Collective, internal circuitry continually rotates the energy frequency of the beam. While standard personal phasers often have power governors for shipboard use, the rifle typically bypasses these limitations due to the selective nature of its deployment in combat zones. To prevent the weapon from falling into enemy hands, sensors in the grip utilize genetic profiling to ensure only the proper operator can fire; unauthorized users are met with incapacitated countermeasures.
The rifle is powered by an extractable sarium krellide power cell magazine that provides a standard capacity of 500 charges, which is significantly larger than the reserves of a hand phaser. A top-mounted ammunition counter monitors these levels, and the weapon maintains an effective range of 1,000 meters. The 2437 model features an extra handgrip molded into the underside below the emitter for secure handling, with the primary trigger located at the top of the rear grip.
The current model offers extensive mission-specific customization. An extended magazine can increase the capacity to 750 charges, while an accelerator module enhances the rate of fire at the cost of higher recoil. For heavy support, the rifle can be fitted with an underslung pump-action Grenade Launcher near the extra handgrip with a four-round magazine, or a 15-round shell launcher based on TR-116 technology for use against dampening fields or shielded targets. Accuracy can be further augmented through a targeting module linked to a mounted Tricorder, a specialized steering stock, or a state-of-the-art reconnaissance scope that extends the rifle's threat identification range to 2 kilometers. In this long-distance "sniper" mode, additional modifications suppress the rifle’s sound and flash to maintain concealment.
Phaser Type III Power Settings | |||
|---|---|---|---|
| 1 | Stun | 2 | Stun a Human for 15 minutes or a Klingon for 5 minutes. |
| 2 | Heavy Stun | 3 | Stun a Human for 1 hour or a Klingon for 15 minutes. |
| 3 | Thermal | 5 | Cut a 1 m hole in 10 cm of steel or rock in 3 minutes. |
| 4 | Heavy Thermal | 7 | Cut a 1 m hole in 10 cm of steel or rock in 30 seconds. |
| 5 | Kill | 10 | Kill a humanoid. |
| 6 | Light Disrupt 1 | 15 | Cut a 1 m hole in a duranium bulkhead in 10 minutes. |
| 7 | Light Disrupt 2 | 20 | Vaporize resilient alloy. |
| 8 | Medium Disrupt 1 | 25 | Vaporize any substance. |
| 9 | Medium Disrupt 2 | 35 | Explode 100 cubic meters of rock into rubble. |
| 10 | Heavy Disrupt | 50 | Explode 500 cubic meters of rock into rubble. |
| Overload | 150 | Vaporizes all objects within 15 meters of the Phaser. | |
SIMs Beacon
The SIMs Beacon is a specialized Starfleet illumination and signaling device engineered primarily for hands-free operation during tactical maneuvers and away team missions. Originally coming into prominent use in the late 24th century, this device was a response to the limitations of handheld palm beacons, which hampered an officer's ability to simultaneously use a phaser or tricorder while navigating dark environments. The unit is typically worn as a wrist-mounted forearm attachment, secured by a rugged rectangular band that ensures the lighting element remains stable during intense physical activity.The physical housing of the SIMs Beacon is constructed from a hard-wearing cast-resin composite designed to resist the environmental stresses of extraterrestrial exploration. The internal hardware features dual high-output light emitters that project a concentrated beam of white-gold light capable of cutting through thick atmospheric fog or the dense shadows of subterranean caverns. A single toggle switch located at the rear of the device controls the activation of these emitters, which are powered by high-capacity internal energy cells that provide sustained illumination for several hours.
Tactically, the SIMs Beacon serves more than just the role of a flashlight as the high-intensity discharge can be utilized as a non-lethal distraction device to temporarily disorient enemies in close-quarters combat. Because the beacon is mounted to the arm, the beam naturally tracks with the wearer's line of fire or the directional orientation of their handheld tools. This alignment allows for seamless coordination between vision and action, making it an essential component of the standard away team kit for Starfleet Security and Engineering personnel.
In the modern 2439 era, these units have been further refined to include auto-adjusting brightness sensors that modulate light output based on ambient conditions, preventing the user from inadvertently washing out their own holographic displays. The SIMs Beacon remains a distinct piece of equipment from the integrated lighting found in some specialized environmental suits, valued for its modularity and the ease with which it can be attached to any standard Starfleet uniform.