手持/便携拉曼光谱仪 532/785/1064 nm
高分辨率光纤光谱仪(200nm-1100nm)
背照式高灵敏紫外光谱仪(200nm-1100nm)
背照式制冷高灵敏光谱仪(200nm-1100nm)
大型数值孔径高灵敏度光谱仪(200-1450nm)
高通量近红外光谱仪(900-2500nm)
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SIMSCOP单点共聚焦显微镜
SIMSCOP线扫共聚焦显微镜
SIMSCOP转盘共聚焦显微镜
SIMSCOP结构光SIM显微镜
SIMSCOP宽场拉曼显微镜
多线连续单模激光器
用于SPAD(APD)测试的TCSPC系统
无掩膜紫外光刻机
多点激光多普勒测振仪 0.1Hz to 5Mhz
OCT成像系统
新品上线
X-ray/XRD 冷热台
光学冷热台
电探针温度台
可调电探针台
拉伸应变温度台
光纤光谱仪 (200nm to 5um)
手持/便携拉曼光谱仪 532/785/1064nm
X射线/极紫外光谱仪 (1-300nm)
高光谱相机 (220nm-4.2μm)
多光谱相机 (400-1000nm)
分光光度计(240-2150nm)
光电倍增管 (PMTs)
可见光单光子探测器(SPD)
红外单光子探测器(SPD)
光电二极管PD(200nm-12um)
热电红外探测器(2-12um)
光电探测器模块
红外光束分析仪(2-16um)
太赫兹光束分析仪(3-20 THz)
扫描狭缝光束轮廓仪(190-2500nm)
光功率计探测器 250-2500nm
功率计控制台
光功率计积分球
电力仪表适配器及附件
VUV/UV摄谱仪
1/8m 单色仪/光谱仪
1/2m &1/4m 单色仪/摄谱仪
单色仪配件
过滤器&滤光片轮
LIV测试系统(LD/LED)
激光多普勒测振仪 0.1Hz to 5Mhz
白光干涉仪
光学镀膜CRD反射计
光学测试测量系统
射频测试测量系统
连续尾纤激光二极管(400-1920nm)
连续激光二极管模块 (375-785nm)
连续多波长激光器
DPSS纳秒脉冲激光器
DFB/FP皮秒激光器(370-1550nm)
高功率飞秒固体激光器
纳秒脉冲光纤激光器(1064-2um)
皮秒脉冲光纤激光器 (515nm - 2um)
飞秒脉冲光纤激光器 780nm-2um
CW光纤激光系统(405nm-2um)
连续窄线宽激光器(1530nm-2um)
C波段可调谐激光器(1529 -1567nm)
L波段可调谐激光器(1554 -1607nm)
超级连续光谱光纤激光器(450-2300nm)
飞秒激光放大器 (650 - 2600nm)
短脉冲OPA(650-2600nm)
宽带飞秒激光器(950-1150nm)
掺铒光纤放大器
掺镱光纤放大器
掺铊光纤放大器
光纤拉曼放大器
半导体光放大器 (SOA)
真空紫外光源
紫外光源
显微镜光源(185-5500nm)
单波长LED光源(240-980nm)
中红外光源
多波长LED光源(240-980nm)
光场合成器
中空纤维压缩机
大功率空心光纤压缩机
超高对比度三阶自相关器
相干超宽带XUV光源
用于激光的增强型腔
太赫兹量子级联激光器(1-4.5Thz)
连续红外量子级联激光(3-12um)
连续长波红外量子级联激光(10-17um)
全自动荧光显微镜
SIMSCOP宽场共焦拉曼显微镜
SIMSCOP科研线扫共聚焦显微镜L系列
宽带手持式共聚拉曼皮肤分析仪
荧光正置/倒置显微镜
生物正/倒置显微镜
相差正置显微镜
暗视野正置显微镜
偏光正置显微镜
金相正置/倒置显微镜
智能三维体视显微镜
USB数字显微镜-带平台
内置数码显微镜
测量仪
金相显微镜
光学测量仪
平场复消色差物镜
工业计划物镜
生物计划物镜
显微镜CCD相机(VIS-NIR)
显微镜 CMOS 摄像头(紫外一近红外)
UV&NIR 增强型CMOS相机
用于显微镜的高光谱相机
用于显微镜的多光谱相机
显微镜光源
软X射线 BSI SCMOS摄像头(80-1000eV)
UV-NIR sCMOS 相机(200-1100nm)
增强型CMOS相机(200-1100nm)
激光增强管
全帧CCD相机(UV VUS NIR)
全帧CCD相机(VUV EUV X-ray)
全画幅真空CCD相机
大幅面真空CCD相机
显微镜CMOS摄像头(紫外一近红外)
UV&NIR增强型CMOS相机
高清晰度多媒体彩色CMOS摄像头(显示器)
高速线扫描摄像机
大幅面摄像机
高速大幅面摄像机
帧抓取器
热释电红外探测器(2-12um)
红外高温计(-40-3000C)
红外线阵列相机
红外线面振相机
黑体校准源 -15 to 1500°C
短波红外摄像机(SWIR)
中波红外摄像机(MWIR)
长波红外摄像机(LWIR)
自由空间声光调制器(AOM)
光纤耦合声光调制器
声光可调滤波器 (AOTF)
声光Q开关 (AOQ)
声光频移 (AOFS)
相位调制器
用于TCSPC的超快脉冲发生器
单光子时间计数器
ID1000定时控制器
电光强度调制器
电光相位调制器
通用脉冲发生器
中高压脉冲发生器
高速脉冲发生器
超高速脉冲发生器
函数发生器
脉冲放大器
脉冲电压
脉冲电流
相位型空间光调制器
振幅型空间光调制器
数字微镜空间光调制器
TPX/HDPE太赫兹平面凸透镜
离轴抛物面反射镜
太赫兹空心逆向反射器
太赫兹金属反射镜
ZnTe/GaSe太赫兹晶体
太赫兹扩束反射
波片
光隔离器
光学偏振片
光束挡板
分束器立方体
二向色分束器
超薄光束挡板
带通滤波器
拉曼光谱滤波器
激光窄滤波器
FISH过滤器
TIRF显微镜过滤器
FRET显微镜过滤器
激光晶体
非线性光学晶体
双折射晶体
光学晶体
电光晶体
微通道板(MCP)
微通道板组件(MCP)
光纤板(FOP)
微孔光学
X射线准直器
混合纤维组件
电动可调光纤延迟线
手动可调光纤延迟线
光学循环器
滤波器耦合器
FA透镜
变焦镜头
电控探针冷热台
外部调节探针冷热台
原位拉伸冷热台
XRD/SEM 原位冷热台
单轴电动压电载物台
XY电动压电载物台
多轴电动压电载物台
XY显微镜压电载物台
真空无磁压电动台
纳米电动执行器
透镜支架
镜架
过滤器支架
13mm 线性位移台
25mm 线性位移台
旋转和倾斜台
齿条和小齿轮级
垂直轴台
2轴台
固体隔振光学台
固体隔振台
气动光学台
带摆杆的气动光学台
蜂窝式光学电路板
The Fiber Patchcord is a specialized type of fiber jumper primarily utilized in applications such as fiber lasers, optical transceivers, fiber devices, fiber I/O interfaces, and other related fields.
It plays a crucial role in optical systems that demand precise polarization control, including but not limited to fiber optic sensors, optical coherence tomography (OCT), fiber lasers, and optical measurement instruments.
PM fiber connectors are employed in optical communication systems to ensure consistent signal polarization state particularly when employing polarization multiplexing technology for enhanced transmission capacity.
Features
Applications
Specifications
Parameter
Unit
Value
Connector Type
-
FC, SC, LC
Center Wavelength
nm
2000, 1950
1550, 1310
1060, 980
850, 780
633, 532
Max. Insertion Loss at 23 ℃
dB
0.5
0.3
1.5
Min. Extinction Ratio at 23℃
22
23
20
Min. Return loss
UPC Type
50
APC Type
60
Fiber Type
PM Panda fiber
Key Orientation
Slow Axis
Tolerance for Axis Alignment
deg
±3
Operating Temperature
℃
-20~+70
Storage Temperature
-40~+85
The default connector key is aligned to slow axis.
Package Dimensions
:
Ordering Information
STPMJP-①①①①-②-③③③-④-⑤-⑥⑦
①①①①
- Wavelength:
2000=2000nm, 1550=1550nm, 1310=1310nm, 1064=1064nm, 980=980nm,...
②
- Axis Alignment:
S=Slow axis, F=Fast axis
③③③
- Fiber Type:
001=PM1550, 002=PM1310, 003=PM980, SSS=Specified
④
- Pigtail Type:
0=bare fiber, 1=900μm loose tube, 2=2.0mm loose tube, 3=3.0mm loose tube
⑤
- Fiber Length:
0.8=0.8m, 1.0=1m, ..., 20=20m, S=Specified
⑥
- Connector for Input:
0=FC/UPC, 1=FC/APC, 2=SC/UPC, 3=SC/APC, N=None, S=Specified
⑦
- Connector for Output:
Q:What is PM Fiber Patchcord and use for?A:PM Fiber Patchcord, where "PM" stands for Polarization-Maintaining, is a specialized type of fiber optic patch cord designed to maintain the polarization state of the light that travels through it. Unlike standard single-mode or multi-mode fibers, which do not maintain the polarization of light, PM fibers are specifically designed to preserve the linear polarization of the light signal.
Key Characteristics and Uses of PM Fiber Patchcords:
Polarization Maintenance:
PM fibers are constructed to maintain the polarization of the light, which is crucial in applications where the polarization state of light needs to be preserved or controlled.
Applications in Sensing and Communication:
Fiber Optic Sensing: PM fibers are often used in fiber optic sensing applications where the measurement is dependent on the polarization state of the light, such as in certain types of interferometric sensors.
Telecommunications and Data Transmission: In systems where data is encoded in the polarization state of the light, maintaining this state over the transmission path is crucial. PM fibers are used in such systems to ensure the integrity of the transmitted data.
Research and Scientific Applications: In various scientific and research applications, especially in physics and photonics, maintaining the polarization of light is critical. PM fibers are used in laboratories for such purposes.
Connector and Alignment:
PM fiber patch cords come with connectors that are specifically designed to maintain polarization. The alignment of these connectors is crucial; they usually have a keying mechanism to ensure that the fiber maintains the correct orientation throughout the connection.
High Precision and Stability:
These fibers offer high precision and stability in environments where maintaining the polarization state of light is necessary for the accuracy and reliability of the system or experiment.
Compatibility and Interfacing:
When using PM fiber patch cords, it's important to ensure that all components in the optical path, including couplers, connectors, and the light source itself, are compatible with polarization-maintaining protocols to ensure the integrity of the polarization state is preserved.
In summary, PM Fiber Patchcords are crucial in applications where the preservation of the light's polarization state is essential for the functionality of the system, whether it be for precise measurements, high-fidelity data transmission, or research and scientific exploration. Their design and usage are centered around maintaining the polarization characteristics of light over the optical transmission path.
Q:What the Key Orientation of PM Fiber Patchcord?
A:The key orientation of a Polarization-Maintaining (PM) fiber patchcord is a critical aspect of its design and functionality. PM fibers are designed to maintain the specific polarization state of the light traveling through them, and the orientation of the fiber, connectors, and the alignment to the light source and other components are crucial in preserving this polarization state. Here's a breakdown of the key orientation considerations for PM fiber patchcords:
1.Connector Key Alignment:
- PM fiber connectors typically have a key or a flat side that ensures proper alignment when mating with receptacles or other connectors. This key ensures that the fiber maintains the correct orientation so that the intended polarization state is preserved.
- The connectors are often aligned to the slow axis or the fast axis of the fiber, and this alignment must be maintained throughout the connection to ensure the polarization-maintaining properties of the fiber are effective.
2. Axis Orientation:
- PM fibers have two principal axes: the slow axis and the fast axis. The polarization of light is maintained along one of these axes. It's crucial that during the installation and connection of PM fiber patchcords, the orientation of these axes is carefully observed and maintained.
- The orientation of the axes is often marked on the connector or the patchcord housing to assist with proper alignment.
3. Orientation During Splicing or Connection:
- When splicing or connecting PM fibers, the rotational orientation is critical. The axes of the fibers being spliced or connected must be precisely aligned to ensure that the polarization-maintaining characteristics are preserved across the connection.
4. Consistency in the System:
- For a system utilizing PM fibers, all components should be consistently oriented with respect to the polarization axes. Any misalignment can cause the system to lose the benefits of polarization maintenance, leading to potential issues in the system's performance.
5. Labeling and Documentation:
- PM fiber patchcords and their corresponding connectors are usually labeled or color-coded to indicate the orientation of the polarization axes. Proper documentation and following manufacturer guidelines are crucial to ensure that the orientation is maintained correctly during installation and usage.
6. Installation and Handling:
- Handling and installing PM fiber patchcords requires precision and care. Twisting or bending the patchcord excessively can stress the fiber and potentially alter its polarization-maintaining properties.
In summary, the key orientation of PM fiber patchcords is not just a physical characteristic but a fundamental aspect of their functionality. Proper alignment, consistent orientation, careful handling, and adherence to manufacturer guidelines are essential to ensure that the unique polarization-maintaining properties of these fibers are effectively utilized in their applications.
Q:What is Tolerance for Axis Alignment in PM Fiber Patchcord use for?
A:The tolerance for axis alignment in PM (Polarization-Maintaining) fiber patchcords is a crucial specification that defines the allowable deviation from the perfect alignment of the fiber's principal axes (the slow and fast axes) during the connection of the fiber to other optical components, such as connectors, couplers, or other fibers. This tolerance is vital for several reasons:
1. Preservation of Polarization State:
- The primary purpose of PM fibers is to maintain the specific polarization state of the light signal. Even slight misalignments can cause the light to couple from the intended polarization mode to the other mode, leading to degradation of the polarization-maintaining properties.
2. Minimization of Insertion Loss:
- Proper axis alignment is crucial for minimizing insertion loss. Misalignment can lead to increased insertion losses, reducing the efficiency and performance of the fiber optic system.
3. Maximization of Extinction Ratio:
- The extinction ratio in PM fiber systems refers to the ratio of the transmitted power in the desired polarization state to the power in the orthogonal (undesired) polarization state. Tight tolerance in axis alignment ensures a high extinction ratio, meaning that the system effectively maintains the desired polarization state over the undesired one.
4. System Performance:
- Systems that rely on the polarization state of light for their operation, such as certain types of sensors, communication systems, or interferometric devices, require precise control over the polarization. Tolerance levels for axis alignment directly impact the performance and reliability of these systems.
5. Compatibility and Standardization:
- In complex systems where components from different manufacturers might be used together, having standardized tolerance levels for axis alignment ensures compatibility and consistent performance across the system.
The tolerance for axis alignment is typically specified in degrees (°). The smaller the number, the tighter the tolerance, and the better the fiber will be at maintaining the polarization state. During the manufacturing and installation of PM fiber patchcords, ensuring that the alignment is within these tolerance limits is critical for the system's overall performance. Specialized equipment and techniques are often used to measure and achieve the precise alignment required in high-performance fiber optic systems.
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