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Results 1-10 of 13,607 for Criteria: Office(s):all Language:EN Stemming: true maximize
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Analysis
Analysis

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Machine translation
TitleCtrPubDate
Int.ClassAppl.NoApplicantInventor
1. WO/2016/149838 MODULAR YARN TESTERWO29.09.2016
G01N 33/36
PCT/CH2016/000016USTER TECHNOLOGIES AGDE VRIES, Loris
The modular tester (1) serves to test elongate textile test material. It has a test material path extending along a front (11) of the tester (1) and a turret-like setup with a multiplicity of functional modules (41-46) for measuring various parameters of the textile test material. The functional modules (41-46) are embodied as slide-in modules. Slots for the functional modules (41-46) are arranged on the turret-like setup in such a way that each functional module (41-46) is insertable into one of the slots from the front (11). Each functional module (41-46) is detachably fastened in one of the slots by means of fastening means (91) which are accessible from the front (11). As a result, the tester (1) can be adapted more easily to changed circumstances.

2. WO/2016/149839 MODULAR YARN TESTERWO29.09.2016
G01N 33/36
PCT/CH2016/000017USTER TECHNOLOGIES AGDE VRIES, Loris
The modular tester (1) serves to test elongate textile test material. It has a test material path (12) and a turret-like setup with a multiplicity of functional modules for measuring various parameters of the test material arranged in succession along the test material path (12). A number of functional modules within the turret-like setup are directly connected to one another in a gas-conducting manner such that, together, they form a ventilation group, in the interior of which a common interior volume is present. The ventilation group has a central ventilation unit (6) which is embodied to ventilate all functional modules of the ventilation group and which contains at least one central ventilator (61-63) for establishing positive air pressure in the common interior volume. Deposits at the sensors are thus avoided. The tester (1) is easily adaptable to changed circumstances, cost-effective, quiet and has a long service life.

3. WO/2016/149842 ELECTRODE ASSEMBLY FOR CAPACITIVELY TESTING AN ELONGATED TEXTILE MATERIALWO29.09.2016
G01N 27/22
PCT/CH2016/000036USTER TECHNOLOGIES AGPETERS, Gabriela
An electrode assembly (5) for capacitively testing an elongated textile material comprises an electrode (64) as part of a measuring capacitor for capacitively testing the elongated textile material. It further comprises a substrate (6) made of an electrically non-conductive material with a first essentially plane base surface (61), a second essentially plane base surface (62) and a peripheral surface (63) between the first base surface (61) and the second base surface (62), the substrate (6) bearing the at least one electrode (64). A metal frame (7) covers at least part of the peripheral surface (63). The metal frame (7) has a convex, smooth surface (74) extending outwardly from the first base surface (61) to the second base surface (62). The metal frame (7) protects the electrode (64) from electrostatic and electromagnetic influences from the outside and thus makes possible a sophisticated evaluation yielding several parameters of the textile material and eliminating the humidity.

4. WO/2016/149848 LED-BASED FIBER PROPERTY MEASUREMENTWO29.09.2016
G01N 21/89
PCT/CH2016/000049USTER TECHNOLOGIES AGDEHKORDI, Peyman
The apparatus (100) is for measuring at least one of color and trash in a fiber sample (102). A light emitting diode light source (104a, 104b) generates an incident light (108) that is directed toward the fiber sample (102), and reflected by the fiber sample (102), thereby producing a reflected light (110). A sensor (112a) receives the reflected light (110) and produces a signal. A controller (118) controls the light source (104a,104b) and the sensor (112a), and at least one of receives and adjusts the signal. At least one of the incident light (108), the reflected light (110) and the signal is conditioned to compensate for differences between the light emitting diode light source ( 104a, 104b) and a xenon light source. Thus, drawbacks of the xenon light source used to date can be avoided.

5. WO/2016/149840 MODULAR THREAD TESTING DEVICEWO29.09.2016
G01N 33/36
PCT/CH2016/000018USTER TECHNOLOGIES AGDE VRIES, Loris
The modular testing device (1) is used to test elongated textile testing materials. The testing device has a testing material path (12) which runs along a front (11) of the testing device (1) and a tower-like structure with a plurality of functional modules (41-46) which are arranged one behind the other along the testing material path (12) for measuring different parameters of the textile testing material. A front cover (6) is secured to the tower-like structure in a rotatable manner such that the cover can be rotated from a closed state, in which the structure at least partly covers a plurality of the functional modules (43-46) from the front (11), to an open state, in which the structure makes said functional modules (43-46) accessible from the front (11), and back. The testing device (1) is easy to maintain and simultaneously protects the functional modules.

6. WO/2016/149841 YARN-CHECKING DEVICE HAVING A YARN INSERTION DEVICEWO29.09.2016
G01N 33/36
PCT/CH2016/000035USTER TECHNOLOGIES AGSCHEIBER, Patrik
The yarn-checking device includes a yarn path running along a front of the yarn-checking device, at least one sensor arranged along the yarn path for checking the yarn sample, and a yarn insertion device (2) for inserting the yarn sample into the yarn path. The yarn insertion device (2) has a movable gripper device (5) for reversibly gripping the yarn sample. Same can both be moved in one direction (101) that is substantially parallel to the yarn path, and rotated about a rotational axis (102) that is perpendicular to the yarn path and parallel to a front plane defined by the front. The moving capacity and the rotating capacity are independent from one another. In this way, the risk of injury to operators is minimised, and there are more possibilities for handling the yarn sample.

7. WO/2016/149846 YARN CLAMP AND SEMIAUTOMATIC YARN CHANGING DEVICE COMPRISING SAMEWO29.09.2016
G01N 33/36
PCT/CH2016/000046USTER TECHNOLOGIES AGSCHEIBER, Patrik
Disclosed is a yarn clamp (5) comprising a pair of clamping plates (51, 52) having parallel, cooperating clamping surfaces (511, 521), and comprising a pressure mechanism (53-57) for applying a pressure force to the clamping plates (51, 52) that presses the clamping surfaces (511, 521) against one another. The pressure mechanism (53-57) comprises two arms (53, 54), each of which supports one of the two clamping plates (51, 52), a hinge (55), which rotatably connects the two arms via a hinge axis (56), and means (57) for exerting a torque on at least one of the two arms (53, 54). The yarn clamp (5) is preferably used in a semiautomatic yarn changing device and facilitates therein the manual insertion of the yarn samples (9).

8. WO/2016/149845 SEMIAUTOMATIC THREAD-CHANGING DEVICE FOR A THREAD-TESTING DEVICEWO29.09.2016
G01N 33/36
PCT/CH2016/000045USTER TECHNOLOGIES AGSCHEIBER, Patrik
The semiautomatic thread-changing device (2) for providing a plurality of thread samples (9) for testing in a thread-testing device comprises a clamping device (3) with a plurality of clamping points (4) for clamping the thread samples (9). Each clamping point (4) includes a thread inlet eye (41) and two thread clamps (42, 43). The thread inlet eye (41) and the two thread clamps (41, 42) lie spaced apart from one another substantially on one clamping upright (40). The clamping uprights (40) of all clamping points (4) lie in one clamping plane (201). The thread inlet eye (41) and the thread clamps (42, 43) of each clamping point (4) are configured in such a way that the thread sample (9) is insertable into the thread inlet eye (41) and the thread clamps (42, 43) in an insertion direction (202) which runs substantially perpendicular to the clamping uprights (40) and perpendicular to the clamping plane (201). In addition, the thread-changing device (2) includes a transport device for transporting (76) the clamping device (3). The invention facilitates the insertion of the thread samples (9) into the thread-changing device (2).

9. WO/2016/149843 CONVEYOR DEVICE FOR A TEXTILE TEST UNITWO29.09.2016
G01N 33/36
PCT/CH2016/000037USTER TECHNOLOGIES AGSCHEIBER, Patrik
The invention relates to a conveyor device (2) for a test unit for testing elongated textile test material, comprising a motor (30) and a pair of conveyor rollers (41, 42) that interact to convey the test material. The outer surfaces of the conveyor rollers can be pressed against one another. At least one of the two conveyor rollers (41, 42) is operatively connected to the motor (30) in order to be rotationally driven. At least one (42) of the two conveyor rollers (41, 42) is movably mounted in the direction perpendicular to the axis (44) of said conveyor roller. The conveyor device comprises a passive opening mechanism, which continuously drives the two conveyor rollers (41, 42) apart, and an operable, active closing mechanism, which, upon actuation, drives the two conveyor rollers (41, 42) against each other and overcomes the effect of the passive opening mechanism. By virtue of the fact that the passive opening mechanism keeps the two conveyor rollers (41, 42) apart in their idle state, pressure points in the conveyor rollers (41, 42) are prevented and the service life of the conveyor rollers (41, 42) is extended.

10. WO/2016/149847 CAPACITIVE SENSOR ASSEMBLY FOR A TEXTILE TESTING DEVICEWO29.09.2016
G01N 27/22
PCT/CH2016/000047USTER TECHNOLOGIES AGJOSS, Rolf
The capacitive sensor assembly (2) for a testing device (1) for testing an elongated textile sample comprises at least one measuring electrode as part of a measuring capacitor for the capacitive testing of the sample, and an electrical circuit that is electrically connected to the at least one measuring electrode. The capacitive sensor assembly (2) also comprises a temperature sensor for measuring a temperature of at least one part (4) of the capacitive sensor assembly (2), and a controllable electro-thermal converter (5) that is thermally connected to the at least one part (4) of the capacitive sensor assembly (2). In this way, the at least one part (4) of the capacitive sensor assembly (2) can be regulated to a desired temperature value, such that the capacitive sensor assembly (2) measures in a substantially stable manner and without temperature drift.


Results 1-10 of 13,607 for Criteria: Office(s):all Language:EN Stemming: true
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