Best Smart Telescopes for Beginners & Stargazers

The best smart telescope for most beginners and stargazers in 2026 is the DWARFLAB Dwarf 3. It is the most balanced package in this roundup: a dual-camera optical system that frames both wide star fields and smaller deep-sky targets, a motorised alt-az mount that plate-solves and tracks without polar alignment, a body you can carry in one hand, and an app that produces a stacked, shareable image in minutes rather than hours. It suits the person who wants real astrophotography — not just a grey smudge in the eyepiece — without buying a mount, a camera, a guide scope and a laptop separately. If budget is the binding constraint, the JVAXS 4K flip-screen telescope is the best budget pick and the easiest one to hand to a child. If image quality matters more than portability, the Vaonis Vespera Pro 2 is the best premium choice. Everything below compares these instruments on the four things that actually determine what you will see: aperture, auto-tracking accuracy, app integration and portability — for a fixed backyard setup and for a scope that has to travel.

Top 3 Picks

Best overall: DWARFLAB Dwarf 3

The Dwarf 3 is the pick that satisfies the widest range of buyers because it does not force a trade-off between travel weight and imaging capability. Its dual-camera design gives you a wide field for framing large targets and a longer focal length for smaller ones, and the app handles go-to, tracking, live stacking and export without a steep learning curve. It is the scope most people should buy first, and the one they are least likely to outgrow within a year.

Best budget: JVAXS 4K flip-screen telescope

For first-time users, families and anyone shopping under a tight ceiling, the JVAXS model is the most beginner-proof option here because it puts the image on a built-in 3-inch flip screen instead of requiring a phone. Setup is a refractor on a tripod, focus is automatic, and the 4K-class camera output is easy to save and share. It will not produce magazine-grade nebula images, but it delivers the Moon, bright planets and the brightest clusters reliably.

Best premium: Vaonis Vespera Pro 2

The Vespera Pro 2 is for the buyer who wants the best possible result with the least possible input — a 12.5 MP square sensor, a 50 MP mosaic mode for very large fields, and signal-enhancement processing that cleans up the noise the smaller scopes leave behind. It is heavier and much more expensive, but it is the instrument that turns a suburban backyard into a genuine imaging site.

Quick Comparison

The table below covers every product in this roundup. Price tiers are relative bands rather than fixed figures, because listings change constantly; the tier tells you what category you are shopping in, not what you will pay on a given day.

How We Chose

These picks come from comparing published manufacturer specifications, category conventions and the way each design behaves in a real observing session — not from any physical evaluation of the units. The criteria were deliberately narrow. First, optical and sensor class: aperture diameter, focal length and sensor size determine the field of view, the resolution limit and how much light the instrument collects per second, and those three numbers predict most of what a buyer will actually see. Second, auto-tracking behaviour: whether the mount plate-solves, how it handles field rotation on an alt-az design, and whether the app lets you extend sub-exposures or stack across them. Third, app integration: operating-system support, live stacking, export formats, offline use and the cadence of firmware updates, since a smart telescope is a software product as much as an optical one. Fourth, portability: weight, packed size, battery behaviour and whether the scope needs a separate tripod. Finally, upgrade path — whether the design lets a beginner grow into longer integration times, filters and external processing, or locks them into a closed pipeline. Products were only included where the listing states the model and the brand is a real, identifiable manufacturer in the astronomy market.

1. DWARFLAB Dwarf Mini – Best for Travel and Grab-and-Go Sessions

The Dwarf Mini is the telescope you buy when the honest answer to “will I actually use this?” depends on whether it fits in a bag. At 1.85 lb, it is by a wide margin the lightest product in this roundup, and the whole setup ritual is: place it on a flat, stable surface, open the app, choose a target, wait. There is no counterweight, no separate mount head, no polar alignment and no cable spaghetti. That makes it the right first smart telescope for someone who observes from a balcony, a campsite table, a hotel roof or a friend’s garden rather than a permanently installed backyard pier.

What the listing establishes, and what the category tells you to expect:

• Weight: 1.85 lb, the lightest in this comparison — genuinely packable in a daypack or a camera slot in a carry-on.
• Design class: a compact dual-camera smart telescope with a motorised alt-az mount built into the body.
• Control: a phone app handling plate-solving go-to, live stacking, focus and image download.
• Field of view: wide-field-first — the short focal length of a body this size favours large targets rather than small ones.
• Power: built-in rechargeable battery class, so a session does not require mains power.
• Best targets: the Orion Nebula, Andromeda, the Pleiades, the Milky Way core, large open clusters and the Moon.
• Not its strength: small planetary discs, tight globular clusters and faint galaxies that need aperture and focal length.

Here is the calculation that explains why a scope this small still produces satisfying images, and where it stops. Field of view, in degrees, is roughly the sensor dimension in millimetres divided by the focal length in millimetres, multiplied by 57.3. Take a compact smart scope with a short focal length — say 100 mm — and a sensor measuring 6 mm across. The horizontal field is 6 ÷ 100 × 57.3, which is about 3.4°. That is wide enough to frame the Andromeda Galaxy (roughly 3° long including its faint outer arms) and the Pleiades (about 1.8° across) with room to spare. Now put the same sensor behind a 250 mm focal length: the field drops to about 1.4°, which is a much better fit for a small galaxy but no longer frames Andromeda comfortably. The Dwarf Mini sits firmly at the wide end of that spectrum, and that is the trade it makes in exchange for weighing under two pounds.

The other thing a lightweight body buys you is session frequency. A telescope that takes four minutes to set up and four minutes to pack away gets used on clear nights that a heavier rig would sit out — the night before a workday, a gap between clouds, a 40-minute window when a target clears the neighbour’s roof. Over a year, that habit difference matters more than a modest aperture advantage. The Mini also handles the practical travel questions well: no external power needed for a short session, no fragile protruding optics, and nothing that requires a checklist to reassemble.

Pros

• Lightest option here at 1.85 lb — the only one that disappears into a normal travel bag.
• Fast setup with no polar alignment, counterweights or external mount.
• Wide field is genuinely useful for the biggest, brightest showpiece targets.
• App-driven workflow suits a complete beginner with no astronomy background.
• Built-in battery means a session can happen anywhere with a flat surface.

Cons

• Small aperture limits faint objects and the detail visible in galaxies.
• Short focal length undersamples small targets — planets appear as small discs at best.
• Less light grasp per second than the 50 mm and 85 mm instruments here, so faint targets need longer total integration.
• A very light body is more affected by wind and by an unstable table.

How it compares with the nearest alternative. The obvious comparison is the DWARFLAB Dwarf 3, which shares the brand, the app and the dual-camera concept but adds focal length and mass. Choose the Mini if portability is the single most important criterion and your target list is dominated by large, bright objects. Choose the Dwarf 3 if you want to point at smaller galaxies and nebulae and have them resolve into structure rather than a soft glow — it costs you a little more weight and a step up within the mid-range tier, and it buys back the focal length that the Mini deliberately gives away.

2. ZWO Seestar S30 Pro – Best for App-First Astrophotography

ZWO built its reputation on dedicated astronomy cameras and the control software that runs them, and the Seestar line is that expertise packaged as a self-contained smart telescope. The S30 Pro is the smaller-aperture, wide-field member of the family, and its appeal is less about raw optical power than about the maturity of everything around the optics: the app, the firmware cadence, the accessory ecosystem and the community of users who document what works. If you want a telescope that behaves like a well-maintained software product, this is the one in this list that most clearly does.

Key specifications and design points

• Aperture class: 30 mm-class objective — wide-field by design.
• Control: app-first operation with one-tap target selection, plate-solved go-to and automatic live stacking.
• Focus: motorised autofocus, so you are not chasing a focus knob in the dark.
• Filtering: built-in light-pollution filtering that helps emission nebulae in suburban skies.
• Mount: motorised alt-az in a single sealed body, no separate tripod head required.
• Ecosystem: regular firmware releases, documented settings and an active user base publishing workflow notes.
• Price tier: premium — you are paying for software maturity and build consistency as much as for glass.

The case for the S30 Pro rests on three things that a specification sheet does not capture. The first is software cadence: firmware that ships often tends to fix tracking quirks, improve stacking rejection of satellite trails, and add target catalogues, and that changes how the instrument performs six months after purchase. The second is consistency of the optical and sensor pairing — a scope designed around one sensor and one focal length can be tuned for that combination, which is why the autofocus and stacking tend to behave predictably. The third is documentation: when thousands of users publish settings for specific targets, a beginner can copy a working recipe instead of discovering one by trial and error.

Where it gives ground is aperture and sub-exposure strategy. A 30 mm-class objective collects light in proportion to the square of its diameter, so compared with an 85 mm instrument it gathers roughly (30 ÷ 85)² ≈ 12% as much light per second — about one-eighth. That gap is not fatal, because stacking compensates: signal-to-noise improves with the square root of the number of sub-exposures, so to match a larger aperture’s result on a faint target you need roughly 64 times as many frames, or a much longer total integration. In practice that means the S30 Pro is superb on bright, large targets and on emission nebulae where a filter helps, and it is the wrong tool for chasing faint galaxies.

Portability is a strength rather than a compromise. The body is small and self-contained, the mount is internal, and the workflow is entirely phone-based, which means the scope can be set down on a picnic table and running in a couple of minutes. For travel, that is close to ideal; for a fixed backyard, a larger-aperture instrument will simply out-resolve it on small targets.

Pros

• The most mature app and firmware pipeline in this roundup.
• Autofocus and one-tap stacking reduce the learning curve to almost nothing.
• Built-in light-pollution filtering makes emission nebulae viable from suburbs.
• Self-contained body with an internal mount — no separate tripod head to buy or level.
• Large, active user community with published settings for common targets.

Cons

• Small aperture means faint, small deep-sky objects need very long integration.
• Premium tier pricing for a 30 mm-class instrument.
• Alt-az tracking introduces field rotation, which caps how long individual sub-exposures can run.
• Closed ecosystem — limited scope for swapping cameras or upgrading the optical train later.

How it compares with the nearest alternative. Against the DWARFLAB Dwarf 3, the S30 Pro wins on software maturity, autofocus reliability and community documentation, and loses on focal length and on price for the class. Against the Vaonis Vespera Pro 2, it is the more hands-on and more portable instrument, but it cannot match the square sensor, the mosaic mode or the larger aperture. Buy the S30 Pro if you value a polished, frequently updated app and you are mostly chasing bright nebulae and wide fields; buy the Dwarf 3 if you want more reach for less money, or the Vespera Pro 2 if you want the best images and are willing to pay for them.

3. DWARFLAB Dwarf 3 – Best Overall

The Dwarf 3 is the best smart telescope for most people because it refuses the usual compromise. Most compact smart scopes are wide-field instruments that struggle the moment you point them at anything small; most large-aperture smart scopes are heavy enough that they live in a cupboard. The Dwarf 3 sits between those poles with a dual-camera optical system — one wide-field camera for framing and large targets, one longer-focal-length camera for reaching in — mounted in a body that is still a one-handed carry. Add an app that handles plate-solving, go-to, tracking, live stacking and export, and you have the instrument that covers the widest range of nights, targets and locations.

Key specifications and design points

• Optics: dual-camera design — a wide-field camera plus a telephoto channel in the roughly 150 mm focal length class.
• Sensor: backside-illuminated CMOS class, which improves sensitivity compared with older front-illuminated designs.
• Mount: motorised alt-az with app-driven plate-solved go-to and object tracking.
• Software: app-based live stacking, target catalogues, image download and sharing.
• Solar capability: the design supports solar observing with an appropriate filter — a real advantage for daytime use.
• Power: built-in rechargeable battery class, with the option of external power for long sessions.
• Portability: small enough for a backpack, with no separate mount head or counterweights.
• Price tier: mid-range — the value position in this roundup.

The dual-camera approach is the feature that justifies the pick, and it is worth understanding why rather than treating it as a marketing line. A single fixed focal length forces a choice: short focal length gives you a wide field and forgiving tracking, but small targets occupy very few pixels; long focal length gives you resolution on small targets, but narrows the field until framing becomes fiddly and tracking errors show up faster. By putting two channels in one body, the Dwarf 3 lets you compose a wide shot of a constellation region and then switch to the telephoto channel for the nebula inside it, using the same mount, the same battery and the same app.

The arithmetic of that second channel matters. On a short focal length, a small planetary nebula a few arcminutes across may cover only a handful of pixels; on a telephoto channel roughly two to three times longer, the same target covers several times the pixel area and therefore shows real structure. That is the difference between a coloured dot and an object. Meanwhile the wide channel keeps the big, bright targets — Andromeda, the Pleiades, the Orion region, the Milky Way core — inside the frame with room for context.

On tracking, an alt-az mount in this class avoids the two things that stop beginners: polar alignment and meridian flips. The trade is field rotation, which limits how long a single sub-exposure can run before stars trail at the frame edges. In practice that is managed by taking many shorter subs and letting the app stack them, which is exactly the workflow a beginner wants anyway — the stacking is where the image quality comes from, not any single frame. This is also why aperture and total integration time matter more than any advertised magnification figure.

Pros

• Dual cameras cover both wide fields and smaller targets with one instrument.
• Mid-range pricing against premium-tier competitors.
• Fully app-driven workflow with plate-solving and live stacking.
• Light enough to travel, capable enough to be your only telescope.
• Solar observing is supported, extending use into daylight hours.
• Backside-illuminated sensor class gives good sensitivity for the aperture.

Cons

• Alt-az tracking limits individual sub-exposure length through field rotation.
• Still short of the aperture and sensor size of the premium instruments here.
• The app’s automatic processing gives you less control than a fully manual astrophotography rig.
• Two cameras mean two things that can each need focus attention in a session.

How it compares with the nearest alternative. The nearest alternative is the Dwarf Mini from the same brand: lighter at 1.85 lb, simpler, and better suited to pure wide-field travel imaging, but without the reach that makes the Dwarf 3 a general-purpose instrument. Against the ZWO Seestar S30 Pro, the Dwarf 3 gives you more focal length and a lower price tier in exchange for a slightly less polished software pipeline. Against the Vaonis Vespera Pro 2, it is dramatically more portable and far cheaper, and it loses on absolute image quality. For a single purchase that has to work on a balcony, in a field and on a trip, this is the one to buy.

4. Vaonis Vespera Pro 2 – Best Premium Imaging Rig

The Vespera Pro 2 is the instrument you buy when the goal is the best possible image with the least possible input. Vaonis designs its telescopes around full automation — you place the scope, the app finds its position, and the system selects exposure, focus and stacking without asking you to make technical decisions. The Pro 2 adds the two specifications that separate it from the compact scopes in this roundup: a 12.5 MP square sensor and a 50 MP mosaic mode, plus signal-enhancement processing that attacks noise at the source. It is the right choice for a suburban or semi-rural backyard where the telescope will live mostly in one place.

Key specifications and design points

• Sensor: 12.5 MP square sensor — a 1:1 aspect ratio that avoids the framing compromises of a rectangular chip.
• Mosaic mode: 50 MP output built by stitching multiple fields, which produces very large, high-detail frames.
• Processing: BalENS signal enhancement, which is designed to improve the signal-to-noise ratio beyond what raw stacking delivers.
• Aperture and focal length: 50 mm-class aperture with a roughly 250 mm-class focal length — a genuine step up from 30–35 mm instruments.
• Operation: fully automatic — target selection, focus, tracking and stacking handled by the app.
• Form factor: a larger, tripod-mounted instrument rather than a palm-sized unit; it is not a backpack telescope.
• Price tier: premium.

The square sensor deserves a specific explanation because it changes how you frame targets. A rectangular sensor in a fixed orientation wastes part of its area on most objects, since a galaxy or nebula rarely matches the chip’s aspect ratio, and the mount cannot rotate the camera without an additional mechanism. A square sensor captures the largest possible inscribed field for any target orientation, which means more usable pixels on the object and fewer frames ruined by a target drifting out of the long axis. Combined with the mosaic mode, which stitches overlapping fields into a much larger canvas, the result is that large objects such as Andromeda or the Veil Nebula can be captured with far more surrounding context than a compact scope can manage in one shot.

Aperture is the second differentiator, and it is quantifiable. Light grasp scales with the square of aperture diameter, so moving from a 35 mm-class objective to a 50 mm-class objective increases collected light by (50 ÷ 35)² ≈ 2.0 — roughly double the photons per second. The Dawes-style resolution limit, approximately 116 divided by the aperture in millimetres, improves from about 3.3 arcseconds to about 2.3 arcseconds. Those two numbers together mean fainter detail is recorded in less total time. On a faint galaxy that a compact scope renders as a soft glow after an hour of stacking, this instrument can show a core, a disc and hints of structure in the same window.

The cost of all that is portability and price. This is a tripod-mounted instrument that you set up deliberately rather than toss in a bag, and it occupies a premium tier. It is also the least adjustable of the picks here: full automation is a benefit if you want results without a learning curve, and a limitation if you want to override gain, exposure length or processing. Buyers who eventually want to control every parameter will find a manual rig more satisfying; buyers who want a finished image before midnight will not miss the controls.

Pros

• Largest sensor and highest-resolution output of any product in this roundup.
• 50 MP mosaic mode captures very large fields with fine detail.
• Signal-enhancement processing targets noise directly.
• Square sensor maximises usable area regardless of target orientation.
• Fully automatic operation — no polar alignment, no manual focus, no parameter tuning.
• 50 mm-class aperture and roughly 250 mm-class focal length give real reach on small targets.

Cons

• Premium price — several times the cost of the mid-range picks.
• Not a travel instrument; heavier and bulkier than every other product here.
• Limited manual control over exposure, gain and processing.
• Closed ecosystem with no upgrade path to different optics or cameras.

How it compares with the nearest alternative. The nearest alternative is the Unistellar Odyssey, the other premium, larger-aperture instrument here. The Odyssey’s 85 mm aperture collects more light per second and its live-view approach is better suited to seeing detail in real time from a light-polluted site, while the Vespera Pro 2 wins on sensor size, mosaic capability and finished-image processing. Against the DWARFLAB Dwarf 3, the Vespera Pro 2 is better in every optical and imaging respect and worse in every portability respect — the decision is simply whether the telescope will travel.

5. Unistellar Odyssey – Best for Light-Polluted Skies and Live Viewing

The Odyssey takes a different approach from the rest of this list. Where the compact scopes optimise for size and the Vaonis optimises for finished still images, Unistellar builds for live observation: you point the app at a target and watch the image brighten on screen in real time rather than waiting for a stack to complete. The listing specifies an 85 mm aperture — the largest in this roundup — which is the physical foundation for that experience, because live viewing depends on collecting enough light quickly to show something before the viewer loses interest.

Key specifications and design points

• Aperture: 85 mm, the largest aperture in this comparison and the reason live viewing works at all.
• Viewing mode: app-based live viewing with image intensification, so detail accumulates on screen as you watch.
• Control: phone or tablet app with plate-solved go-to and target catalogues.
• Science modes: Unistellar instruments support citizen-science observation programmes, including coordinated campaigns.
• Mount: motorised alt-az in a tripod-mounted body — a portable but not pocketable instrument.
• Finish: black, as listed.
• Price tier: premium.

The aperture number is the whole story here, and it is worth doing the comparison properly. Against a 30 mm-class scope, an 85 mm objective collects (85 ÷ 30)² ≈ 8.0 times as much light per second. Against a 35 mm-class scope, it is (85 ÷ 35)² ≈ 5.9 times. Against a 50 mm-class scope, it is (85 ÷ 50)² ≈ 2.9 times. Since signal-to-noise grows with the square root of total integration, that light advantage translates into reaching a given image quality in roughly one-eighth, one-sixth or one-third of the time respectively. In a suburban sky where the limiting factor is skyglow rather than tracking, that time advantage is exactly what makes live viewing possible instead of a 40-minute wait.

Resolution improves too, though less dramatically. The approximate Dawes limit of 116 divided by aperture in millimetres gives about 1.4 arcseconds at 85 mm, against roughly 3.9 arcseconds at 30 mm and 3.3 arcseconds at 35 mm. That matters for globular clusters — the difference between a fuzzy ball and a resolved swarm of stars — and for the brighter planetary nebulae, where the disc and any central star become distinguishable.

The live-view design has a second consequence that is easy to underestimate: it changes who can use the telescope. A stack that appears over 20 minutes is a solitary experience; an image that brightens on a tablet screen in seconds is something a group can watch together, which is why this instrument is popular with outreach events and with families. The trade is that the displayed image is processed for immediacy, and the underlying data may not offer the same latitude for later re-processing as a dedicated astrophotography capture.

Portability sits in the middle. This is a tripod-mounted instrument with a larger tube than the compact scopes, so it is transportable in a car and reasonable to carry to a dark site, but it is not a backpack telescope and it is not something you set up on a whim in a hotel room. For a backyard observer who wants a permanent or semi-permanent setup, that is a fine trade.

Pros

• Largest aperture in this roundup — roughly eight times the light grasp of a 30 mm-class scope.
• Live viewing shows results in seconds rather than after a long stack.
• Excellent for group viewing, outreach and family sessions.
• Citizen-science observation modes add a purpose beyond imaging.
• Strong performance under light-polluted suburban skies.

Cons

• Premium tier pricing.
• Bulkier and heavier than every compact smart scope here.
• Live-view processing prioritises immediacy over maximum data latitude.
• Larger aperture does not automatically mean better finished stills than a bigger-sensor competitor.

How it compares with the nearest alternative. The closest alternative is the Vaonis Vespera Pro 2, the other premium, larger-aperture instrument. The Odyssey wins on light grasp per second, on live viewing and on the immediacy of the experience; the Vespera Pro 2 wins on sensor size, mosaic output and the quality of the finished still image. If you enjoy the act of watching the sky brighten and want to share it, choose the Odyssey. If you want the best possible photograph at the end of the night, choose the Vespera Pro 2. Against the mid-range DWARFLAB Dwarf 3, the Odyssey is the more capable and much less portable instrument.

6. FASHIONARIU Digital Refractor – Best Budget Refractor-Style Scope

This is a different category of product from everything above, and it is worth being clear about that. The FASHIONARIU digital refractor is a conventional refractor tube on an alt-az tripod, with a CMOS camera replacing the eyepiece and auto-focus handling the focusing step. It does not plate-solve, it does not track a deep-sky object across the sky, and it does not stack sub-exposures. What it does is deliver recognisable views of the Moon, the brighter planets and terrestrial subjects, with a digital output you can capture and share. For a household testing whether astronomy will hold a child’s attention, that is a legitimate and inexpensive starting point.

Key specifications and design points

• Optical type: refractor — a sealed tube, which means no collimation and nothing to misalign in transit.
• Focus: auto-focus, per the listing, removing the most common beginner frustration.
• Imaging: a digital CMOS camera in place of an eyepiece, with output to a screen or a connected device.
• Mount: alt-az tripod — manual or motorised pointing depending on configuration, but not a plate-solving go-to system.
• Best targets: the Moon, Jupiter and Saturn at small scale, bright double stars, and daytime landscape subjects.
• Price tier: budget — the entry point of the market.

To set expectations precisely: this class of instrument will show you the lunar terminator, the major maria and large craters clearly. It will show Jupiter as a disc with the four Galilean moons as points of light, and Saturn as an elongated shape with a ring hint at modest magnification. It will show you the Orion Nebula as a soft grey patch and the Pleiades as a cluster of bright stars. It will not show spiral arms in galaxies, colour in nebulae, or detail on Mars. That is not a defect of this particular model; it is the physics of a small-aperture refractor under a suburban sky, and no budget product escapes it.

Two practical points decide whether a scope like this gets used. The first is the tripod. A refractor on a light aluminium tripod shakes for a second or more after every touch, which makes high-magnification viewing genuinely difficult; if you buy in this tier, budget for setting the tripod as low as comfortable, adding weight to the accessory tray, and using a lower magnification for a steadier image. The second is chromatic aberration: achromatic refractors of modest focal ratio show purple fringing on bright objects such as the Moon’s limb and Jupiter’s disc. It is visible, it is normal at this price point, and it does not stop you enjoying the view.

The auto-focus and digital camera do solve the two problems that historically ended beginner astronomy sessions — struggling with a focuser in the dark, and not being able to see anything through a narrow eyepiece. Everything appears on a screen, which is also how a child can be included in the session rather than waiting their turn at an eyepiece.

Pros

• Lowest-cost way to get a digital view of the Moon and bright planets.
• Auto-focus removes the hardest part of a first session.
• Screen-based viewing is inclusive — several people can watch at once.
• Sealed refractor tube needs no collimation and survives being carried around.
• Doubles as a daytime spotting scope for wildlife and landscape.

Cons

• No go-to tracking or plate-solving — you find objects yourself.
• Small aperture limits deep-sky viewing to the brightest handful of objects.
• No live stacking, so no path to long-integration astrophotography.
• Lightweight tripods in this tier tend to vibrate, which hurts high-magnification viewing.
• Achromatic optics show visible colour fringing on bright targets.

How it compares with the nearest alternative. The nearest alternative is the JVAXS 4K flip-screen telescope, which also targets beginners but packages the display into the instrument and markets a 4K-class camera. The JVAXS is easier to hand