Showing 145–156 of 6875 results

90 Elbew With Trreaded Male Off Take

0,00 

 

Technical Specifications :

packNom DiaCodeDiscription
1401/2×2002- 020- 030
1003/4×2503 -025- 030

90 Elbew With Trreaded Male Off Take

0,00 

 

Technical Specifications :

packNom DiaCodeDiscription
1401/2×2002- 020- 030
1003/4×2503 -025- 030

90 Elbew With Trreaded Male Off Take

0,00 

 

Technical Specifications :

packNom DiaCodeDiscription
1401/2×2002- 020- 030
1003/4×2503 -025- 030

9W LED Bulb SMD E27 LED Lamps

0,00 

Technical Specs

Spec
Product Name9W LED Bulb SMD E27
Power(W)9
Voltage(V)230
Frequency(Hz)50
Current(mA)70
Luminous Flux(lm)800
Luminous Efficiency(Lm/W)>88
Beam Angle(deg)215
Light ColorDaylight-Warm White
Color Temperature(Warm White)(k)2940
Color Temperature(Daylight)(k)6400
Photometric Code(Warm White)830/778
Photometric Code(Daylight)865/778
Color Rendering Index(CRI)>80
K displacement(cos ϕ1)≥0.7
LX FYL80 F50
Operating Temperature(℃)-20…+40
Outer BulbA60
Base TypeE27
LED TechnologySMD
Average Life(hrs)25000
Guarantee12 months
Energy GradeA+
Energy Consumption(Wh)9
Dimensional Specifications and Packing
Length(mm)109±2
Diameter(mm)60±0.5
Numerator – Quantity Per Pack(PCS)60

9W LED Bulb SMD E27 LED Lamps

0,00 

Technical Specs

Spec
Product Name9W LED Bulb SMD E27
Power(W)9
Voltage(V)230
Frequency(Hz)50
Current(mA)70
Luminous Flux(lm)800
Luminous Efficiency(Lm/W)>88
Beam Angle(deg)215
Light ColorDaylight-Warm White
Color Temperature(Warm White)(k)2940
Color Temperature(Daylight)(k)6400
Photometric Code(Warm White)830/778
Photometric Code(Daylight)865/778
Color Rendering Index(CRI)>80
K displacement(cos ϕ1)≥0.7
LX FYL80 F50
Operating Temperature(℃)-20…+40
Outer BulbA60
Base TypeE27
LED TechnologySMD
Average Life(hrs)25000
Guarantee12 months
Energy GradeA+
Energy Consumption(Wh)9
Dimensional Specifications and Packing
Length(mm)109±2
Diameter(mm)60±0.5
Numerator – Quantity Per Pack(PCS)60

9W LED Bulb SMD E27 LED Lamps

0,00 

Technical Specs

Spec
Product Name9W LED Bulb SMD E27
Power(W)9
Voltage(V)230
Frequency(Hz)50
Current(mA)70
Luminous Flux(lm)800
Luminous Efficiency(Lm/W)>88
Beam Angle(deg)215
Light ColorDaylight-Warm White
Color Temperature(Warm White)(k)2940
Color Temperature(Daylight)(k)6400
Photometric Code(Warm White)830/778
Photometric Code(Daylight)865/778
Color Rendering Index(CRI)>80
K displacement(cos ϕ1)≥0.7
LX FYL80 F50
Operating Temperature(℃)-20…+40
Outer BulbA60
Base TypeE27
LED TechnologySMD
Average Life(hrs)25000
Guarantee12 months
Energy GradeA+
Energy Consumption(Wh)9
Dimensional Specifications and Packing
Length(mm)109±2
Diameter(mm)60±0.5
Numerator – Quantity Per Pack(PCS)60

A.1 Laminated Safety Glass (Multi-Layer)

0,00 

The laminate glass utilized in sloped, overhead, and other applications presents numerous design and safety challenges. If the glass breaks, the glazing system must protect against the falling glass. Additionally, an understanding of the unique thermal, solar, and ultraviolet characteristics of sloped and overhead glazing is required to avoid occupant discomfort and poor energy efficiency, and reduce potential damage to household furnishings. This Product Application Note is intended to provide an overview of the range of options that exist to incorporate laminated glass in overhead and sloped applications.

A.1 Laminated Safety Glass (Multi-Layer)

0,00 

The laminate glass utilized in sloped, overhead, and other applications presents numerous design and safety challenges. If the glass breaks, the glazing system must protect against the falling glass. Additionally, an understanding of the unique thermal, solar, and ultraviolet characteristics of sloped and overhead glazing is required to avoid occupant discomfort and poor energy efficiency, and reduce potential damage to household furnishings. This Product Application Note is intended to provide an overview of the range of options that exist to incorporate laminated glass in overhead and sloped applications.

A.1 Laminated Safety Glass (Multi-Layer)

0,00 

The laminate glass utilized in sloped, overhead, and other applications presents numerous design and safety challenges. If the glass breaks, the glazing system must protect against the falling glass. Additionally, an understanding of the unique thermal, solar, and ultraviolet characteristics of sloped and overhead glazing is required to avoid occupant discomfort and poor energy efficiency, and reduce potential damage to household furnishings. This Product Application Note is intended to provide an overview of the range of options that exist to incorporate laminated glass in overhead and sloped applications.

A.2 Tempered Glass

0,00 

Fully tempered glass is a safety glass, generally four times stronger than the same thickness of ordinary annealed glass. Taking ordinary glass to a tempered state involves heating the glass in a special furnace to approximately 1260° Fahrenheit, then setting a permanent tension between the glass “core” and surfaces by rapidly cooling the glass in a high-pressure quench.. When fully tempered glass is broken, the release of tension between these surfaces initiates a cascade of much smaller glass fragments than ordinary annealed glass. While a person can still get cut by this safety glass, the objective is to eliminate as much of the dangerously long shards of glass raining down within the broken debris as possible.

A.2 Tempered Glass

0,00 

Fully tempered glass is a safety glass, generally four times stronger than the same thickness of ordinary annealed glass. Taking ordinary glass to a tempered state involves heating the glass in a special furnace to approximately 1260° Fahrenheit, then setting a permanent tension between the glass “core” and surfaces by rapidly cooling the glass in a high-pressure quench.. When fully tempered glass is broken, the release of tension between these surfaces initiates a cascade of much smaller glass fragments than ordinary annealed glass. While a person can still get cut by this safety glass, the objective is to eliminate as much of the dangerously long shards of glass raining down within the broken debris as possible.

A.2 Tempered Glass

0,00 

Fully tempered glass is a safety glass, generally four times stronger than the same thickness of ordinary annealed glass. Taking ordinary glass to a tempered state involves heating the glass in a special furnace to approximately 1260° Fahrenheit, then setting a permanent tension between the glass “core” and surfaces by rapidly cooling the glass in a high-pressure quench.. When fully tempered glass is broken, the release of tension between these surfaces initiates a cascade of much smaller glass fragments than ordinary annealed glass. While a person can still get cut by this safety glass, the objective is to eliminate as much of the dangerously long shards of glass raining down within the broken debris as possible.