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Papiers peints: Molecular model of amorolfine, a morpholine antifungal drug that

Papiers peints: Molecular model of amorolfine, a morpholine antifungal drug that

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Papiers peints:

Molecular model of amorolfine, a morpholine antifungal drug that used to treat some types of fungal nail infections, of the toenail or fingernail. Scientific background. 3d illustration.

Auteur: ©

Maryna Olyak

Numéro de l'image:

#246314277

Autres sujets:

fond, bleu, bien-être, prévention, pharmacologique, ordonnance, pharmacie, scientifique, recherche

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Largeur:		max 662 cm Déplacez la partie en surbrillance du motif. Si un détail important manque dans le cadre sélectionné et que vous souhaitez l'inclure, veuillez indiquer cette information dans les commentaires de votre commande.
Hauteur:		max 441 cm
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Prix

19,32 EUR

prix minimum 19,32 EUR prix standard 35,13 EUR

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Structural chemical formula and molecular model of betamethasone, a corticosteroid drug that used to treat a variety of skin conditions. 3d illustration

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Structural chemical formula and space-filling molecular model of citicoline, a nutritional supplement and the source of cytidine and choline. 3d illustration

Space-filling molecular model of L-glutamine. Atoms are represented as spheres with conventional color coding: hydrogen (white), carbon (grey), oxygen (red), nitrogen (blue). 3d illustration

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Molecular model of human prolactin, a hormone produced in the pituitary gland, named because of its role in lactation. Scientific background. 3d illustration

Molecular model of human chorionic gonadotropin, a hormone produced primarily by the cells that surround the growing human embryo. Scientific background. 3d illustration

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Structural chemical formula and molecular model of ravuconazole, a potent triazole antifungal similar structurally to fluconazole and voriconazole. 3d illustration

Crystal structure of human chorionic gonadotropin, a hormone produced primarily by syncytiotrophoblastic cells of the placenta during pregnancy. 3d illustration

Molecular model of human prolactin. Atoms are represented as spheres with conventional color coding: carbon (grey), hydrogen (white), oxygen (red), nitrogen (blue), sulfur (yellow). 3d illustration

Structural chemical formula and space-filling molecular model of modaline, a potent monoamine oxidase inhibitor that used as antidepressant. 3d illustration

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Structural chemical formula and molecular model of benzyl alcohol, aromatic alcohol that widely used as a solvent and an intermediate in pharmaceutical and perfume industries. 3d illustration

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Molecular model of butenafine, an antifungal agent with primary fungicidal activity used to treat a variety of fungal skin infections such as ringworm and jock itch. 3d illustration

Space-filling molecular model of guanine. Atoms are represented as spheres with conventional color coding: carbon (grey), nitrogen (blue), oxygen (red), hydrogen (white). 3d illustration

Structural chemical formula and molecular model of cytosine, one of the four main bases found in DNA and RNA, along with adenine, guanine, thymine. 3d illustration

Molecular model of modaline, a potent monoamine oxidase inhibitor that showed therapeutic antidepressant activity and used in the treatment of depression. Scientific background. 3d illustration

Molecular model of human dipeptidyl peptidase-4. Atoms are represented as spheres with conventional color coding: carbon (grey), oxygen (red), nitrogen (blue), sulfur (yellow). 3d illustration

Glycogen molecule, a polysaccharide that serves as a form of energy storage of animals, fungi and bacteria. Scientific background. 3d illustration

Structural chemical formula and molecular model of ergocalciferol, a fat-soluble vitamin that helps our body absorb calcium and phosphorus found in foods or supplements. 3d illustration

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Space-filling molecular model of benzyl alcohol. Atoms are represented as spheres with conventional color coding: carbon (grey), oxygen (red), hydrogen (white). 3d illustration

Crystal structure and space-filling molecular model of human glucokinase in complex with glucose and activator. 3d illustration

Structural chemical formula and molecular model of vitamin D2 sulfate, a vitamin that helps our body absorb calcium and phosphorus found in foods or supplements. 3d illustration

Crystal structure of insulin degrading enzyme in complex with inhibitor. It is a major enzyme responsible for insulin degradation. 3d illustration

Space-filling and ball-and-stick molecular model of human chorionic gonadotropin, a hormone produced primarily by the cells that surround the growing human embryo. 3d illustration

Crystal structure of human glucokinase in complex with glucose and activator. Glucokinase is an enzyme that facilitates phosphorylation of glucose. 3d illustration

Structural chemical formula and space-filling molecular model of ergocalciferol or vitamin D2 sulfate, isolated on white background. 3d illustration

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Solution structure of human prolactin, a hormone produced in the pituitary gland, named because of its role in lactation. 3d illustration

Human glucokinase in complex with glucose and activator. Atoms are represented as spheres with conventional color coding: carbon (grey), sulfur (yellow), oxygen (red), nitrogen (blue). 3d illustration

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Crystal structure and space-filling molecular model of human dipeptidyl peptidase-4, a member of the prolyl oligopeptidase family that has been implicated in several diseases. 3d illustration

Molecular model of vitamin D6. Atoms are represented as spheres with conventional color coding: carbon (grey), oxygen (red), hydrogen (white). Scientific background. 3d illustration

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Molecular model of dextrose or glucose, a simple sugar circulates in the blood as blood sugar. Scientific background. 3d illustration

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Matériaux

Papier peint vinyle

Le papier peint vinyle est imprimé sur un support résistant à la une surface lisse et mate.

La technologie HP Latex utilisée vous fera profiter de couleurs intenses au fil du temps.

✓ Résistant à la déformation et à l'étirement
✓ Perméable à la vapeur d'eau
✓ Facile à poser
✓ Encre HP Latex écologique

Largeur maximale des lés de papier peint : 95-105 cm. Pour les dimensions supérieures à la largeur du matériau, les impressions seront réalisées sur plusieurs lés égaux
Utilisation : murs lisses et plats
Collage: bord à bord. La colle ne s’applique que sur la surface de vos murs ce qui réduit le risque d'endommagement de votre papier peint et permet également de petites corrections afin d’ajuster la pose
Nettoyage : chiffon sec
Finition : semi-mate

Papier peint vinyle lavable

Le papier peint vinyle lavable est imprimé sur un support résistant à la une surface lisse et mate. Il est également stratifié ce qui le protège de l’humidité et autres facteurs extérieurs (éraflure, égratignure, exposition au soleil).

La technologie HP Latex utilisée vous fera profiter de couleurs intenses au fil du temps.

✓ Stratifié
✓ Résistant à l’humidité, aux éraflures, égratignures et à l’exposition au soleil
✓ Résistant à la déformation et à l'étirement
✓ Perméable à la vapeur d'eau
✓ Facile à poser
✓ Encre HP Latex écologique

Largeur maximale des lés de papier peint: 95-105 cm. Pour les dimensions supérieures à la largeur du matériau, les impressions seront réalisées sur plusieurs lés égaux
Utilisation : murs lisses et plats. Pièces avec une forte présence d’humidité (cuisine, salle de bains) ou celles dont les surfaces seraient susceptibles d’être éraflées (couloir, chambre d’enfant, hôtel, restaurant, salle de conférence, bâtiment public, école, maternelle, crèche)
Collage: bord à bord. La colle ne s’applique que sur la surface de vos murs ce qui réduit le risque d'endommagement de votre papier peint et permet également de petites corrections afin d’ajuster la pose
Nettoyage: chiffon humide
Finition: semi-mate

Papier peint vinyle expansé

Le papier peint vinyle est imprimé sur un support résistant à la structure « sable fin » ce qui intensifie le rendu de profondeur de l’impression. La technologie HP Latex utilisée vous fera profiter de couleurs intenses au fil du temps.

✓ Structure sable fin
✓ Résistant à la déformation et à l'étirement
✓ Perméable à la vapeur d'eau
✓ Facile à poser
✓ Encre HP Latex écologique

Largeur maximale des lés de papier peint: 100cm. Pour les dimensions supérieures à la largeur du matériau, les impressions seront réalisées sur plusieurs lés égaux
Utilisation : murs lisses et plats. Le papier peint photo conviendra aussi bien dans des intérieurs comme la maison mais aussi dans un restaurant, une l’école ou encore au travail dans les bureaux
Collage: bord à bord. La colle ne s’applique que sur la surface de vos murs ce qui réduit le risque d'endommagement de votre papier peint et permet également de petites corrections afin d’ajuster la pose
Nettoyage: chiffon sec
Finition: semi-mate, structure sable fin

Papier peint vinyle expansé lavable

Le papier peint vinyle est imprimé sur un support résistant à la structure «sable fin» ce qui intensifie le rendu de profondeur de l’impression. La technologie HP Latex utilisée vous fera profiter de couleurs intenses au fil du temps.

✓ Stratifié
✓ Structure sable fin
✓ Résistant à l’humidité, aux éraflures, égratignures et à l’exposition au soleil
✓ Résistant à la déformation et à l'étirement
✓ Perméable à la vapeur d'eau
✓ Facile à poser
✓ Encre HP Latex écologique

Largeur maximale des lés de papier peint: 100cm. Pour les dimensions supérieures à la largeur du matériau, les impressions seront réalisées sur plusieurs lés égaux
Utilisation : murs lisses et plats. Pièces avec une forte présence d’humidité (cuisine, salle de bains) ou celles dont les surfaces seraient susceptibles d’être éraflées (couloir, chambre d’enfant, hôtel, restaurant, salle de conférence, bâtiment public, école, maternelle, crèche)
Collage: bord à bord. La colle ne s’applique que sur la surface de vos murs ce qui réduit le risque d'endommagement de votre papier peint et permet également de petites corrections afin d’ajuster la pose
Nettoyage: chiffon humide
Finition: semi-mate, structure sable fin

Papier peint autocollant

Ce papier peint conviendra à différents types de pièces et de surfaces. Les papiers peints autocollants pourront décorer vos murs, vos armoires, vos vitres, vos meubles et autres surfaces lisses. La technologie HP Latex utilisée vous fera profiter de couleurs intenses au fil du temps.

✓ Pas besoin de colle
✓ Très facile à poser
✓ Résistant à la déformation et à l'étirement
✓ Perméable à la vapeur d'eau
✓ Encre HP Latex écologique

Largeur maximale des lés de papier peint: 133cm. Pour les dimensions supérieures à la largeur du matériau, les impressions seront réalisées sur plusieurs lés égaux
Utilisation : surfaces lisses, utilisation universelle
Collage: bord à bord
Nettoyage: chiffon humide
Finition: semi-mate

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Voir aussi