Wiebke HΓ€ger's Avatar

Wiebke HΓ€ger

@wiebkehaeger.bsky.social

🌱 Go Science 🌱 Interested in cell wall degrading enzymes and parasitic plants. Postdoc in the Hamann Lab at NTNU, Trondheim, Norway.

68 Followers  |  155 Following  |  11 Posts  |  Joined: 18.10.2024  |  0.0109

Latest posts by wiebkehaeger.bsky.social on Bluesky

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Congratulations to Prof. @eilonshani.bsky.social Eilon Shani, #Hydrosensing PI, on being elected to EMBO 2025! πŸŽ‰

This honor recognizes his outstanding contributions to plant molecular genetics and scientific excellence @embo.org

www.embo.org/press-releas...

02.07.2025 15:11 β€” πŸ‘ 8    πŸ” 3    πŸ’¬ 0    πŸ“Œ 0
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Γ…tta nya toppforskare till Sveriges unga akademi - Sveriges Unga Akademi Den 23 maj tar Sveriges unga akademi emot Γ₯tta nya ledamΓΆter – framstΓ₯ende yngre forskare frΓ₯n fΓ€lt som datadriven biovetenskap, historia och hΓ₯llbarhetsvetenskap. Med sina olika perspektiv stΓ€rker de...

”Att vΓ€lkomna nya ledamΓΆter Γ€r livskraften i en ung akademi. Jag tycker det ska bli spΓ€nnande att fΓ₯ lΓ€ra mig mer om deras forskning och vad de brinner fΓΆr och vill engagera sig i Γ₯ret som kommer.” Gabriele Messori, ordf, professor meteorologi, UU.
sverigesungaakademi.se/pressmeddela...

23.05.2025 10:14 β€” πŸ‘ 4    πŸ” 3    πŸ’¬ 1    πŸ“Œ 1
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Heute 16 Uhr: Klima-Ringvorlesung @UniDUE 🌍
Prof. Dr. Wieland spricht ΓΌber No-Regret-Technologien fΓΌr die Energiewende.
πŸ‘‰ Offen fΓΌr alle, mit Q&A!
Jetzt anmelden:
uni-due.zoom-x.de/webinar/regi...
#UDE4Future #Energiewende #Klimaschutz @unidue.bsky.social

22.05.2025 08:22 β€” πŸ‘ 16    πŸ” 6    πŸ’¬ 1    πŸ“Œ 0

In defense of funding foundational plant science (Joanna Friesner , Cristiana T Argueso , Wolfgang Busch , Thorsten Hamann , Lucia Strader , Mary Williams , Shuang Wu , Adrienne H K Roeder) Read more at: doi.org/10.1093/plce... #PlantScience

21.05.2025 18:04 β€” πŸ‘ 17    πŸ” 10    πŸ’¬ 0    πŸ“Œ 2
Me in the lab in a labcoat next to our freeze dryer. The glass beakers can be connected and the vacuum extends into the beakers with the sample in them. Black tubes connect the beakers with the vacuum chamber and white valves allow for individual connecting and disconnecting.

Me in the lab in a labcoat next to our freeze dryer. The glass beakers can be connected and the vacuum extends into the beakers with the sample in them. Black tubes connect the beakers with the vacuum chamber and white valves allow for individual connecting and disconnecting.

A photo of a sticker on the back of the freeze dryer in our lab that displays the manufacturing date 11-29-00.

A photo of a sticker on the back of the freeze dryer in our lab that displays the manufacturing date 11-29-00.

In the lab, I like to look at equipment and play guessing "Who is younger - the lab equipment or me?" πŸ˜…

... you win this round, freeze dryerπŸ˜‹

18.05.2025 15:16 β€” πŸ‘ 3    πŸ” 0    πŸ’¬ 0    πŸ“Œ 0

Somehow two images are not displayed correctly... I reposted it with all images visible...

18.05.2025 15:11 β€” πŸ‘ 0    πŸ” 0    πŸ’¬ 0    πŸ“Œ 0
A freeze dryer with plant samples in aluminium bags. The glass beakers can be connected and the vacuum extends into the beakers with the sample in them. Black tubes connect the beakers with the vacuum chamber and white valves allow for individual connecting and disconnecting.

A freeze dryer with plant samples in aluminium bags. The glass beakers can be connected and the vacuum extends into the beakers with the sample in them. Black tubes connect the beakers with the vacuum chamber and white valves allow for individual connecting and disconnecting.

A close-up of a beaker from a freeze dryer with plant samples in aluminium bags. The glass beakers can be connected and the vacuum extends into the beakers with the sample in them. Black tubes connect the beakers with the vacuum chamber and white valves allow for individual connecting and disconnecting.

A close-up of a beaker from a freeze dryer with plant samples in aluminium bags. The glass beakers can be connected and the vacuum extends into the beakers with the sample in them. Black tubes connect the beakers with the vacuum chamber and white valves allow for individual connecting and disconnecting.

A fine scale for scaling in milligram range. The scale is resting on a special heavy table that prevents vibrations of the table to influence the scaling. A red rack with sample tubes is standing next to the scale as well as a clean tissue paper with two metal tweezers on it.

A fine scale for scaling in milligram range. The scale is resting on a special heavy table that prevents vibrations of the table to influence the scaling. A red rack with sample tubes is standing next to the scale as well as a clean tissue paper with two metal tweezers on it.

A piece of clean tissue paper with two metal tweezers on it. Between the tweezers is a 2 ml reaction tube with a metal bead and freeze dried tobacco leaf pieces in it.

A piece of clean tissue paper with two metal tweezers on it. Between the tweezers is a 2 ml reaction tube with a metal bead and freeze dried tobacco leaf pieces in it.

This week, I processed my plant samples further🌱. I cut the areas where I injected the sample in the tobacco plants, put the pieces in little aluminium foil bags, freeze dried them and scaled equal amounts of dry leaf pieces. Scaling milligrams of leaf pieces needs quite some patienceπŸ˜…

#wisskomm

18.05.2025 15:09 β€” πŸ‘ 3    πŸ” 0    πŸ’¬ 0    πŸ“Œ 0
A freeze dryer with plant samples in aluminium bags. The glass beakers can be connected and the vacuum extends into the beakers with the sample in them. Black tubes connect the beakers with the vacuum chamber and white valves allow for individual connecting and disconnecting.

A freeze dryer with plant samples in aluminium bags. The glass beakers can be connected and the vacuum extends into the beakers with the sample in them. Black tubes connect the beakers with the vacuum chamber and white valves allow for individual connecting and disconnecting.

A close-up of a beaker from a freeze dryer with plant samples in aluminium bags. The glass beakers can be connected and the vacuum extends into the beakers with the sample in them. Black tubes connect the beakers with the vacuum chamber and white valves allow for individual connecting and disconnecting.

A close-up of a beaker from a freeze dryer with plant samples in aluminium bags. The glass beakers can be connected and the vacuum extends into the beakers with the sample in them. Black tubes connect the beakers with the vacuum chamber and white valves allow for individual connecting and disconnecting.

A fine scale for scaling in milligram range. The scale is resting on a special heavy table that prevents vibrations of the table to influence the scaling. A red rack with sample tubes is standing next to the scale as well as a clean tissue paper with two metal tweezers on it.

A fine scale for scaling in milligram range. The scale is resting on a special heavy table that prevents vibrations of the table to influence the scaling. A red rack with sample tubes is standing next to the scale as well as a clean tissue paper with two metal tweezers on it.

A piece of clean tissue paper with two metal tweezers on it. Between the tweezers is a 2 ml reaction tube with a metal bead and freeze dried tobacco leaf pieces in it.

A piece of clean tissue paper with two metal tweezers on it. Between the tweezers is a 2 ml reaction tube with a metal bead and freeze dried tobacco leaf pieces in it.

This week, I processed my plant samples further🌱. I cut the areas where I injected the sample in the tobacco plants, put the pieces in little aluminium foil bags, freeze dried them and scaled equal amounts of dry leaf pieces. Scaling milligrams of leaf pieces needs quite some patienceπŸ˜…

#wisskomm

18.05.2025 15:01 β€” πŸ‘ 1    πŸ” 0    πŸ’¬ 1    πŸ“Œ 0
E-book Beyond GMO Welcome to SPPS' download site! The translation of the

At the Scandinavian Plant Physiology Society (SPPS) Conference 2024, I heard that much of the support for #GenomeEditing in Sweden started after the publication of an educational book on genetically modified plants.
English translation available for free on the SPPS website spps.se/e-book-beyon...

14.05.2025 15:02 β€” πŸ‘ 1    πŸ” 0    πŸ’¬ 0    πŸ“Œ 0
Nicotiana benthamiana plants in flower pots on a black tray. A syringe and a pen are next to the pots on the tray. Where liquid has been injected into the leaves, it is visible as darker spots on the green leaves.

Nicotiana benthamiana plants in flower pots on a black tray. A syringe and a pen are next to the pots on the tray. Where liquid has been injected into the leaves, it is visible as darker spots on the green leaves.

I use a syringe to inject liquid containing an enzyme that damages the plant cell wall into young tobacco plants. You see the liquid as dark spots. This is Nicotiana benthamiana (the wild relative of N. tabacum, the more famous tobacco plant). Excited to see how the plants react to the treatment 😁😁😁

09.05.2025 13:33 β€” πŸ‘ 0    πŸ” 0    πŸ’¬ 0    πŸ“Œ 0

In my research, I study how plants respond when they are damaged. Plants – like us – can perceive their surrounding and have an immune system. Around every cell, they have a cell wall, which provides stability and protects them. When the cell wall is damaged, plants activate their immune system...

09.05.2025 13:23 β€” πŸ‘ 2    πŸ” 1    πŸ’¬ 1    πŸ“Œ 0

This is me in the room where we work with genetically modified organisms (GMOs). To keep the GMO plants confined our special secured rooms, I am changing from my normal lab wear into a red lab coat, wear shoe covers and wear a hair net to not carry seeds or pollen outside on my clothes.

09.05.2025 13:14 β€” πŸ‘ 1    πŸ” 0    πŸ’¬ 0    πŸ“Œ 0
This is me treating tobacco plants (Nicotiana benthamiana) to study their immune reaction when their cell wall is damaged. I am wearing a red lab coat and a hair net to prevent carrying seeds or pollen outside of our secure facility.

This is me treating tobacco plants (Nicotiana benthamiana) to study their immune reaction when their cell wall is damaged. I am wearing a red lab coat and a hair net to prevent carrying seeds or pollen outside of our secure facility.

When I talk to friends, family or others that don't work in research, I am often surprised and amused when I learn how they imagine me working in the lab πŸ˜… So I thought I’d start sharing more from my everyday work doing plant science πŸ‘©β€βš•οΈπŸŒ±

@hydrosensing.bsky.social @hamannlab.bsky.social

09.05.2025 13:00 β€” πŸ‘ 6    πŸ” 1    πŸ’¬ 1    πŸ“Œ 0
The logo of the Hydrosensing project symbolically and conceptually represents the scientific goals of the initiative, which focus on how plants perceive and respond to water stress.

The image is framed within a water droplet, an element that directly references water as both a vital resource and the main subject of study. Inside the droplet, a plant with two green leaves grows from the center, symbolizing plant life and its interaction with water availability.

The lower half of the droplet is vertically divided into two distinct sections:

    The left half, in blue, represents a moist or well-irrigated environment.

    The right half, in brown and ochre tones, suggests a dry soil or drought conditions.

Roots extend downward from the plant's central stem into water, visually conveying the concept of a plant sensing and responding to different levels of water availability.

The design visually reinforces the mission of the Hydrosensing project: to understand the molecular and physiological mechanisms by which plants perceive water stress, with the aim of contributing to the development of crops that are more resilient to climate change.

The logo of the Hydrosensing project symbolically and conceptually represents the scientific goals of the initiative, which focus on how plants perceive and respond to water stress. The image is framed within a water droplet, an element that directly references water as both a vital resource and the main subject of study. Inside the droplet, a plant with two green leaves grows from the center, symbolizing plant life and its interaction with water availability. The lower half of the droplet is vertically divided into two distinct sections: The left half, in blue, represents a moist or well-irrigated environment. The right half, in brown and ochre tones, suggests a dry soil or drought conditions. Roots extend downward from the plant's central stem into water, visually conveying the concept of a plant sensing and responding to different levels of water availability. The design visually reinforces the mission of the Hydrosensing project: to understand the molecular and physiological mechanisms by which plants perceive water stress, with the aim of contributing to the development of crops that are more resilient to climate change.

Glad to introduce our new logo πŸŽ‰

This new image reflects our mission: understanding how #plants perceive and respond to water stress β€” a step toward developing crops resilient to drought and #climatechange

πŸ”— hydrosensing.eu

The image tells a story:

1/3 πŸ‘‡

08.05.2025 08:21 β€” πŸ‘ 6    πŸ” 3    πŸ’¬ 1    πŸ“Œ 0
Group photo of the ERC Hydrosensing team at the project meeting in Regensburg in April 2025.

Group photo of the ERC Hydrosensing team at the project meeting in Regensburg in April 2025.

Photo of the city of Regensburg showing the old town by the river, including the old church.

Photo of the city of Regensburg showing the old town by the river, including the old church.

A poster at the ERC Hydrosensing project meeting in Regensburg showing a plant and water molecules as well as the names and flags of the team leaders Eilon Shani (Israel), Malcom Bennet (UK), Thorsten Hamann (Norway) and Christine Ziegler (Germany).

A poster at the ERC Hydrosensing project meeting in Regensburg showing a plant and water molecules as well as the names and flags of the team leaders Eilon Shani (Israel), Malcom Bennet (UK), Thorsten Hamann (Norway) and Christine Ziegler (Germany).

Super excited to start my new position in the Hydrosensing ERC Synergy Project😊 It was amazing to get a preview in Regensburg and meet all you nice and inspiring people!
Looking forward to two more years as part of this excellent, international team!
@hydrosensing.bsky.social @hamannlab.bsky.social

02.05.2025 08:10 β€” πŸ‘ 7    πŸ” 2    πŸ’¬ 0    πŸ“Œ 0

New update of the Hydrosensing Started Pack. Follow us!

go.bsky.app/7j83oiQ

22.04.2025 09:47 β€” πŸ‘ 2    πŸ” 2    πŸ’¬ 0    πŸ“Œ 0
Malcolm Bennet in the greenhouse with the filming crew

Malcolm Bennet in the greenhouse with the filming crew

Poonam Mehra while filming

Poonam Mehra while filming

Malcolm Bennet in the greenhouse while filming

Malcolm Bennet in the greenhouse while filming

In @uniofnottingham.bsky.social ERC Hydrosensing members spent a few intense (and wardrobe-consistent πŸ˜…) days filming about research on root systems and how plants adapt to drought.

More footage for the documentary is being filmed at locations around the world in the coming year.

22.04.2025 10:48 β€” πŸ‘ 11    πŸ” 3    πŸ’¬ 1    πŸ“Œ 0

These were great days.. thank you all!
@hamannlab.bsky.social @eilonshani.bsky.social @sara-morghen.bsky.social @francesco-saffioti.bsky.social @katjaurbansky.bsky.social @wiebkehaeger.bsky.social @michaelaticha.bsky.social @hydrosensing.bsky.social @hydrophotonics.bsky.social

17.04.2025 12:22 β€” πŸ‘ 5    πŸ” 2    πŸ’¬ 0    πŸ“Œ 0
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We are fascinated by how our leafy friends 🌱 feel the subtle shifts in soil moisture πŸ’¦ Last week we hydrated your minds and cultivated connections at our #erc meeting focusing on the captivating world of #Plant #HydroSensing 🧩@hydrosensing.bsky.social @hydrophotonics.bsky.social

14.04.2025 18:20 β€” πŸ‘ 4    πŸ” 5    πŸ’¬ 0    πŸ“Œ 0
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After our annual #HydroSensing meeting in Regensburg, we went for a hike.. of course with a subsequent data collection and data processing demonstration 😁 #Plant #cryoEM

13.04.2025 14:29 β€” πŸ‘ 5    πŸ” 2    πŸ’¬ 0    πŸ“Œ 0
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Exciting ERC synergy project meeting in Regensburg 😊@hydrosensing.bsky.social @ntnudiscovery.bsky.social @uniofnottingham.bsky.social @uniregensburg.bsky.social

11.04.2025 08:30 β€” πŸ‘ 8    πŸ” 3    πŸ’¬ 0    πŸ“Œ 0

Congratulations!

14.01.2025 06:52 β€” πŸ‘ 1    πŸ” 0    πŸ’¬ 1    πŸ“Œ 0
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Cellular damage triggers mechano-chemical control of cell wall dynamics and patterned cell divisions in plant healing Di Fino etΒ al. analyzed the biomechanical properties of the cell wall in the Arabidopsis root and found that xylem pole pericyclic cell walls are more flexible than outer cell walls. This flexibility ...

Thrilled to share our work lead by Di Fino in great collaboration with @Panosmoschou,@Hamann_lab, @GreenMechanobio, @RichardSmithLab published @Dev_Cell: Developmental Cell www.cell.com/developmenta...

13.01.2025 16:20 β€” πŸ‘ 51    πŸ” 21    πŸ’¬ 10    πŸ“Œ 3

@wiebkehaeger is following 20 prominent accounts