36374 Results for: "Lead+acetate+solution"
Glyoxal dimethyl acetal 60% in aqueous solution
Supplier: Apollo Scientific
Glyoxal dimethyl acetal 60% in aqueous solution
Expand 3 Items
EDTA disodium salt concentrate for dilution to 0.1 mol in aqueous solution, ConvoL NORMADOSE® volumetric solution
Supplier: VWR Chemicals
Dose for preparation of 1 litre of solution of concentration 0.1 mol/l
Expand 1 Items
VWR® pH Buffer, Acetic Acid-Ammonium Acetate, pH 6,8, REAGENT
Supplier: VWR Chemicals
Ready to use test solution (TS).
Expand 1 Items
Lead(II) acetate trihydrate 99+% ACS
Supplier: Thermo Fisher Scientific
Lead(II) acetate trihydrate 99+% ACS
Expand 4 Items
Lithium acetate 1 mol/l in aqueous solution
Supplier: G-Biosciences
Lithium acetate 1 mol/l in aqueous solution
Expand 1 Items
EDTA disodium salt concentrate for dilution to 0.01 mol in aqueous solution, ConvoL NORMADOSE® volumetric solution
Supplier: VWR Chemicals
EDTA disodium salt concentrate for dilution to 0.01 mol in aqueous solution, ConvoL NORMADOSE® volumetric solution
Expand 1 Items
Iodine monobromide solution 20 g/l in acetic acid (99%) Reag. Ph. Eur. 1045901
Supplier: VWR Chemicals
Iodine monobromide solution 20 g/l in acetic acid (99%) Reag. Ph. Eur. 1045901
Expand 1 Items
Glyoxal dimethyl acetal 60% in aqueous solution
Supplier: Thermo Fisher Scientific
Glyoxal dimethyl acetal 60% in aqueous solution
Expand 3 Items
Lead(II) acetate trihydrate
Supplier: Roth Carl
Lead(II) acetate trihydrate
Expand 2 Items
EDTA disodium salt 0.05 mol/l (0.1 N) in aqueous solution, AVS TITRINORM volumetric solution
Supplier: VWR Chemicals
EDTA disodium salt 0.05 mol/l (0.1 N) in aqueous solution, AVS TITRINORM volumetric solution
Expand 2 Items
Perchloric acid 0.1 mol/l (0.1 N) in anhydrous acetic acid, AVS TITRINORM Reag. Ph. Eur. volumetric solution
Supplier: VWR Chemicals
Perchloric acid 0.1 mol/l (0.1 N) in anhydrous acetic acid, AVS TITRINORM Reag. Ph. Eur. volumetric solution
Expand 3 Items
Anti-CLCN5 Rabbit Polyclonal Antibody (Alexa Fluor® 555)
Supplier: Bioss
The family of voltage-dependent chloride channels (CLCs) regulate cellular trafficking of chloride ions, a critical component of all living cells. CLCs regulate excitability in muscle and nerve cells, aid in organic solute transport and maintain cellular volume. The genes encoding human CLC-1 through CLC-7 map to chromosomes 7q32, 3q28, 4q32, Xp22.3, Xp11.23-p11.22, 1p36 and 16p13, respectively. CLC1 is highly expressed in skeletal muscle. Mutations in the gene encoding CLC1 lead to myotonia, an inheritable disorder characterized by muscle stiffness and renal salt wasting. CLC2 is highly expressed in the epithelia of several organs including lung, which suggests CLC2 may be a possible therapeutic target for cystic fibrosis. CLC3 expression is particularly abundant in neuronal tissue, while CLC4 expression is evident in skeletal and cardiac muscle as well as brain. Mutations in the gene encoding CLC5 lead to Dent’s disease, a renal disorder characterized by proteinuria and hypercalciuria. CLC6 and CLC7 are broadly expressed in several tissues including testis, kidney, brain and muscle.
Expand 1 Items
Anti-CLCN5 Rabbit Polyclonal Antibody (Alexa Fluor® 488)
Supplier: Bioss
The family of voltage-dependent chloride channels (CLCs) regulate cellular trafficking of chloride ions, a critical component of all living cells. CLCs regulate excitability in muscle and nerve cells, aid in organic solute transport and maintain cellular volume. The genes encoding human CLC-1 through CLC-7 map to chromosomes 7q32, 3q28, 4q32, Xp22.3, Xp11.23-p11.22, 1p36 and 16p13, respectively. CLC1 is highly expressed in skeletal muscle. Mutations in the gene encoding CLC1 lead to myotonia, an inheritable disorder characterized by muscle stiffness and renal salt wasting. CLC2 is highly expressed in the epithelia of several organs including lung, which suggests CLC2 may be a possible therapeutic target for cystic fibrosis. CLC3 expression is particularly abundant in neuronal tissue, while CLC4 expression is evident in skeletal and cardiac muscle as well as brain. Mutations in the gene encoding CLC5 lead to Dent’s disease, a renal disorder characterized by proteinuria and hypercalciuria. CLC6 and CLC7 are broadly expressed in several tissues including testis, kidney, brain and muscle.
Expand 1 Items
Lead(II) acetate trihydrate, Sigma-Aldrich®
Supplier: Merck
Lead(II) acetate trihydrate, Sigma-Aldrich®
Expand 3 Items
Lead(II) acetate trihydrate 99.0-103.0% ACS
Supplier: Thermo Fisher Scientific
Lead(II) acetate trihydrate 99.0-103.0% ACS
Expand 3 Items
Anti-CLCN5 Rabbit Polyclonal Antibody (HRP (Horseradish Peroxidase))
Supplier: Bioss
The family of voltage-dependent chloride channels (CLCs) regulate cellular trafficking of chloride ions, a critical component of all living cells. CLCs regulate excitability in muscle and nerve cells, aid in organic solute transport and maintain cellular volume. The genes encoding human CLC-1 through CLC-7 map to chromosomes 7q32, 3q28, 4q32, Xp22.3, Xp11.23-p11.22, 1p36 and 16p13, respectively. CLC1 is highly expressed in skeletal muscle. Mutations in the gene encoding CLC1 lead to myotonia, an inheritable disorder characterized by muscle stiffness and renal salt wasting. CLC2 is highly expressed in the epithelia of several organs including lung, which suggests CLC2 may be a possible therapeutic target for cystic fibrosis. CLC3 expression is particularly abundant in neuronal tissue, while CLC4 expression is evident in skeletal and cardiac muscle as well as brain. Mutations in the gene encoding CLC5 lead to Dent’s disease, a renal disorder characterized by proteinuria and hypercalciuria. CLC6 and CLC7 are broadly expressed in several tissues including testis, kidney, brain and muscle.
Expand 1 Items
Anti-CLCN5 Rabbit Polyclonal Antibody
Supplier: Bioss
The family of voltage-dependent chloride channels (CLCs) regulate cellular trafficking of chloride ions, a critical component of all living cells. CLCs regulate excitability in muscle and nerve cells, aid in organic solute transport and maintain cellular volume. The genes encoding human CLC-1 through CLC-7 map to chromosomes 7q32, 3q28, 4q32, Xp22.3, Xp11.23-p11.22, 1p36 and 16p13, respectively. CLC1 is highly expressed in skeletal muscle. Mutations in the gene encoding CLC1 lead to myotonia, an inheritable disorder characterized by muscle stiffness and renal salt wasting. CLC2 is highly expressed in the epithelia of several organs including lung, which suggests CLC2 may be a possible therapeutic target for cystic fibrosis. CLC3 expression is particularly abundant in neuronal tissue, while CLC4 expression is evident in skeletal and cardiac muscle as well as brain. Mutations in the gene encoding CLC5 lead to Dent’s disease, a renal disorder characterized by proteinuria and hypercalciuria. CLC6 and CLC7 are broadly expressed in several tissues including testis, kidney, brain and muscle.
Expand 1 Items
EDTA disodium salt 7,444 g/l in aqueous solution, AVS TITRINORM
Supplier: VWR Chemicals
EDTA disodium salt 7,444 g/l in aqueous solution, AVS TITRINORM
Expand 1 Items
Anti-CLCN5 Rabbit Polyclonal Antibody (Alexa Fluor® 647)
Supplier: Bioss
The family of voltage-dependent chloride channels (CLCs) regulate cellular trafficking of chloride ions, a critical component of all living cells. CLCs regulate excitability in muscle and nerve cells, aid in organic solute transport and maintain cellular volume. The genes encoding human CLC-1 through CLC-7 map to chromosomes 7q32, 3q28, 4q32, Xp22.3, Xp11.23-p11.22, 1p36 and 16p13, respectively. CLC1 is highly expressed in skeletal muscle. Mutations in the gene encoding CLC1 lead to myotonia, an inheritable disorder characterized by muscle stiffness and renal salt wasting. CLC2 is highly expressed in the epithelia of several organs including lung, which suggests CLC2 may be a possible therapeutic target for cystic fibrosis. CLC3 expression is particularly abundant in neuronal tissue, while CLC4 expression is evident in skeletal and cardiac muscle as well as brain. Mutations in the gene encoding CLC5 lead to Dent’s disease, a renal disorder characterized by proteinuria and hypercalciuria. CLC6 and CLC7 are broadly expressed in several tissues including testis, kidney, brain and muscle.
Expand 1 Items
VWR® Sodium Acetate Buffer Solution, pH 5,2 (3 mol/L) for Biotechnology
Supplier: VWR Chemicals
Sodium acetate buffer, VWR®, 3 M, pH value: 5,2
Expand 2 Items
VWR® pH Buffer Solution According to Reag. Ph. Eur. 4000600
Supplier: VWR Chemicals
Contents: ammonium acetate R / water R / hydrochloric acid R1.
Expand 1 Items
Alcian blue 8GX 1% in 3% acetic acid for microscopy, Sigma-Aldrich®
Supplier: SIGMA ALDRICH MICROSCOPY
Alcianblue 8GX solution has been used as a staining dye for chondrocytic, osteoblastic and adipocytic differentiation. It has also been used for the staining of sections in immunohistochemistry.
Expand 2 Items
Ninhydrin solution R3 Reag. Ph. Eur. 1058306
Supplier: VWR Chemicals
A 4 g/l solution in a mixture of 5 volumes of anhydrous acetic acid R and 95 volumes of butanol R.
Expand 1 Items
Buffer, sodium acetate buffer solution pH 5,2 (3 mol/l)
Supplier: G-Biosciences
Cloning Buffer, Sodium acetate buffer solution pH 5,2 (3 mol/l)
Expand 1 Items
Buffer, triethylammonium acetate, 1 M solution, pH 7,0
Supplier: PanReac AppliChem
Used for the purification of oligonucleotides.
Expand 2 Items
Ninhydrin solution Reag. Ph. Eur. 1058303
Supplier: VWR Chemicals
Ninhydrin 0.2% in 1-butanol : acetic acid (95:5 v:v)
Expand 1 Items
Lead tetraacetate ≥95%, powder
Supplier: MP Biomedicals
Lead tetraacetate smoothly induces the addition of difluorodiiodomethane to alkenes and alkynes.
Expand 3 Items
Buffer, sodium acetate buffer solution pH 5,2 (3 mol/L)
Supplier: Thermo Fisher Scientific
Cloning Buffer, Sodium acetate buffer solution pH 5,2 (3 mol/l)
Expand 1 Items
EDTA disodium salt 0.1 mol/l (0.2 N) in aqueous solution, AVS TITRINORM for hardness of water determinations
Supplier: VWR Chemicals
1ml = 5.6° dH/100 H₂O
Expand 2 Items
Sigma-Aldrich® Bouin's solution
Supplier: SIGMA ALDRICH MICROSCOPY
Bouin's solution is an excellent fixative for preserving soft and delicate structures. It is prepared with saturated picric acid, formaldehyde and acetic acid.