Proton 7.0-5

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Karina Edling

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Aug 3, 2024, 4:36:46 PM8/3/24

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and ? Apex, Back 4 Blood like example or Vermintide II for some guys can work to Linux and they use eac. So why you cant try do a better implemantation ?
That is really shame to have a game run perfectly and destroyed by a simple function.
Do you have no trick for that ? else I will wait Proton 7.0.5.
I hope Darktide will work and I pre-ordered from september.

I can play Realm modded with Proton 6.3 but realm official the eac dont run cant reach server.
so when I used proton 7.x.x the game say I have : insuficient ressource for both realms.
Strange ? Sad to modded we cant grow ours characters.

Valve released today Proton 7.0-5 for public testing as Proton Next, a new flavor of this open-source compatibility tool for Steam Play based on Wine and additional components to let you play Windows games on GNU/Linux systems.

The Proton 7.0-5 release promises support for even more Windows video games that you can now play on your favorite GNU/Linux distribution if you have the latest Proton version installed on your Steam for Linux client.

Last but not least, Proton 7.0-5 improves support for the Thrustmaster HOTAS joystick in the Elite Dangerous game, implements network video support for VRChat, and updates its DXVK dependency to DXVK 1.10.3-28-ge3daa699.

To enable Proton Next and test drive the Proton 7.0-5 release, open your Steam Client and go to your games library. Right-click on any game you want to play using the Proton compatibility tool, go to Preferences, and then click on Compatibility on the left side of the window. Check the Force the use a specific Steam Play compatibility tool and then select Proton Next from the drop-down list.

Getting your Unreal game onto your shiny, new steam deck is probably simpler than you thought! This brief tutorial walks through using the SteamOS Devkit Client to deploy to your device. Link to new Epic docs: Steam Deck Quick Start in Unreal Engine Unreal Engine 5.0 Documentation

-engine-deploying-to-steam-deck

Proton 7.0-5 launched the game and prompted me The following components are required to run this program: C++ Visual Studio Code. I went through the install and the game launches to black then closes.

As well as improvements to Red Dead Redemption 2, Tekken 7, and Planet Zoo, which have also been experiencing crashing problems, the new version of Proton also adds compatibility for some other games. Rift, Unravel 2, Bulletstorm: Full Clip Edition, plus several other lesser-known games should all now work with the update.

The Steam Deck continues to be a formidable force in the portable gaming PC arena, with updates inbound on a regular basis. Check out the Proton 7.0-5 changelog to see what other tweaks and fixes have been implemented for your favourite games.

Differently, Proton 7.0-5 (Steam) recognize the DualShock4 on Bluetooth and it's actually working[\*] in-game. And no, Steam Input is NOT enabled.
([\*] all buttons are swapped, but that's another story...)

Valve Proton 7.0-5, Wine Linux , Windows Steam. BSD.

Proton Linux- Steam , Windows. DirectX 9/10/11 ( DXVK) DirectX 12 ( vkd3d-proton), DirectX API Vulkan, . "esync" (Eventfd Synchronization) "futex/fsync".

Po troch mesiacoch od vydania poslednej stabilnej verzie Protonu bolo konečne oznmen vydanie novej aktualizcie nstroja Proton 7.0-5. Tto aktualizcia opť rozširuje zoznam hrateľnch hier na Linuxe, vrtane handheldu Steam Deck. Dodatočne pribudli tiež opravy chb so zlepšeniami funkčnosti inch hier alebo aktualizcie softvrovch komponentov.

S verziou Protonu 7.0-5 s už označen ako hrateľn hern tituly Rift, Unravel 2, Re-Volt, Darkstar One, Indiana Jones and the Emperor Tomb, Bulletstorm: Full Clip Edition a pr ďalšch. Opraven boli aj pdy hier Red Dead Redemption 2, Tekken 7, Planet Zoo či chbajce textry v hre GTA V. Nakoniec by už prehrvanie videa malo fungovať v hrch Space Engineers, VRChat a Dragon's Dogma: Dark Arisen.

Nov Proton zatiaľ aktualizuje DXVK na predposledn verziu 1.10.3. DXVK slži na preklad inštrukci Direct3D 9 až 11 do Vulkan API a v tejto verzii boli opraven naprklad grafick chyby hier Prey a Bioshock Infinite. Tento mesiac už však bolo oznmen vydanie verzie DXVK 2.0 s dlhm zoznamom technickch zmien, ktor v budcnosti pomžu zlepšiť stabilitu a funkčnosť včšinou staršch hier.

Ďalšie podrobnosti o zmench v aktualizcii nstroja Proton 7.0-5 je možn njsť v repozitri na GitHube.

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The bacterial flagellar motor is a unique supramolecular complex which converts ion flow into rotational force. Many biological devices mainly use two types of ions, proton and sodium ion. This is probably because of the fact that life originated in seawater, which is rich in protons and sodium ions. The polar flagellar motor in Vibrio is coupled with sodium ion and the energy converting unit of the motor is composed of two membrane proteins, PomA and PomB. It has been shown that the ion binding residue essential for ion transduction is the conserved aspartic acid residue (PomB-D24) in the PomB transmembrane region. To reveal the mechanism of ion selectivity, we identified essential residues, PomA-T158 and PomA-T186, other than PomB-D24, in the Na+-driven flagellar motor. It has been shown that the side chain of threonine contacts Na+ in Na+-coupled transporters. We monitored the Na+-binding specific structural changes using ATR-FTIR spectroscopy. The signals were abolished in PomA-T158A and -T186A, as well as in PomB-D24N. Molecular dynamics simulations further confirmed the strong binding of Na+ to D24 and showed that T158A and T186A hindered the Na+ binding and transportation. The data indicate that two threonine residues (PomA-T158 and PomA-T186), together with PomB-D24, are important for Na+ conduction in the Vibrio flagellar motor. The results contribute to clarify the mechanism of ion recognition and conversion of ion flow into mechanical force.

A fundamental part of the development of life on Earth was the evolution of cells possessing a membrane between the interior and exterior environments. The exchange of substances between the interior of a cell and the external environment is essential for cell survival. The transport of substances against the concentration difference between the two regions requires energy coupling. Cells often use the driving force of ions (typically protons and sodium ions) as the energy for the transport events1,2. This is probably due to the fact that life originated in seawater, which is rich in protons and sodium ions. Many biological devices mainly use these two types of ions. The mechanism of the ion motive force has been best analyzed in ATPase and in the bacterial flagellar motor3,4. Their operating mechanisms and structures are totally different, but both are rotary motors that use proton and sodium ions as the main coupling ions to generate the rotary force.

The bacterial flagellar motor is a supramolecular complex that rotates their filaments for bacterial swimming5,6,7. This rotary motor is composed of a stator and rotor. The rotor is located beneath the membrane-embedded flagellar basal body and faced to the cytoplasm. FliG, a main component of the rotor, participates directly in torque generation. The stator, a membrane protein complex, assembles around the rotor to interact with each other and provides a transmembrane ion-conducting pathway.

Primary and schematic structures of transmembrane regions in the stator complex of the flagellar motor. (A) Amino acid sequence alignment near four transmembrane regions of subunit A in the H+-driven and Na+-driven flagellar motor. Arrows indicate the conserved threonine residues in the Na+-type stator investigated in this study. Solid arrowheads indicate highly conserved amino acid residues that can coordinate Na+ and investigated previously. The underline in the Va sequences is the predicted transmembrane region. Va, V. alginolyticus; So, S. oneidensis; Bs, B. subtilis; Aa, A. aeolicus; Ec, E. coli. (B) Amino acid sequence alignment of a transmembrane region of subunit B in the H+-driven and Na+-driven flagellar motor. The arrow indicates the highly conserved threonine residue in the Na+-type stator investigated in this study. Solid arrowheads indicate conserved residues that can be candidate Na+-binding sites, and have been investigated previously. The open arrowhead is the conserved aspartic acid (D24). The underline in Va sequences is the predicted transmembrane region of PomB. (C) Schematic representation of the stator complex of Na+-driven flagellar motor and location of conserved threonine residues investigated in this study. (D) Model for the arrangement of transmembrane regions in the stator complex and position of conserved threonine residues. Model for E. coli MotA/MotB based on cross-linking experiments are adapted to that for PomA/PomB according to the amino acid alignment. Each circle indicates a transmembrane alpha helix and designated as A or B. PomA composed of four transmembrane regions are surrounded by the dashed line. The predicted Na+-binding site is gray. Red circles denote threonine residue investigated in this report. The blue circle denotes the position of the conserved aspartic acid (D24).