mhurhangee/ep-ind-claims huggingface dataset:
A method of forming a wear resistant surface comprising transparent or semi-transparent wear resistant particles on a surface, the surface being a powder layer, wherein the method comprises: • applying a liquid binder in a pre-determined pattern on the surface, • applying wear resistant particles on the surface, • bonding a part of the wear resistant particles to the surface with the liquid binder, • removing non-bonded wear resistant particles from the surface such that the bonded wear resistant particles are arranged in the pre-determined pattern and are evenly distributed on at least a first portion of said surface, and • applying heat and pressure to the surface with the bonded wear resistant particles, wherein the surface comprises a printed decor and the wear resistant particles are spaced from each other and coordinated in register with the printed décor. • applying a liquid binder in a pre-determined pattern on the surface, • applying wear resistant particles on the surface, • bonding a part of the wear resistant particles to the surface with the liquid binder, • removing non-bonded wear resistant particles from the surface such that the bonded wear resistant particles are arranged in the pre-determined pattern and are evenly distributed on at least a first portion of said surface, and • applying heat and pressure to the surface with the bonded wear resistant particles,
Cable junction housing, specifically a roadside distribution housing, of a telecommunications cable network having an installed element for handling spliced joints and/or patch joints between optical waveguides routed in optical waveguide cables within the cable junction housing, with a basic body of the installed element which can be fixedly mounted in the cable junction housing, the basic body having a rear wall, a front wall and at least one side wall (13,14), the rear wall of the basic body defining a first mounting plane, in which incoming and outgoing optical waveguide cables can be supported and their excess lengths can be deposited, by a plurality of cable-routing elements being fixed on the rear wall of the basic body in the manner of a matrix or in the form of columns running next to one another and rows running one above the other, on which cable-routing elements the incoming and outgoing optical waveguide cables can be routed in the region of the first mounting plane whilst maintaining permissible minimum bending radii, the front wall defining a second mounting plane, on which splicing cassettes for handling sliced joints and/or assemblies for handling patch joints are fixed between the optical waveguides routed in the incoming and outgoing optical waveguide cables, the front wall being fixed pivotably on a side wall, and thus it being possible to move over optical waveguide bundles between the first mounting plane defined by the rear wall and the second mounting plane defined by the front wall, the front wall by having a shortened width at least in one section, which runs adjacent to the side wall of the basic body on which the front wall is fixed pivotably, in order thus to provide a bushing between the side wall of the basic body and the front wall.
A sounding method of an access point, AP, for receiving feedback information including a downlink, DL, channel state in a wireless LAN, WLAN, system, the method comprising: transmitting a null data packet, NDP, announcement, NDPA, frame announcing transmission of an NDP frame; transmitting the NDP frame; transmitting a trigger frame including resource allocation information related to a resource unit allocated to a station STA; and receiving a feedback frame including a feedback information including the DL channel state by uplink, UL, multi-user, MU, transmission via the allocated resource unit, wherein the feedback information is generated based on the NDP frame, wherein the feedback information is reported for each of a plurality of frequency granularities, FGs, with respect to a partial reception bandwidth of the received NDP frame, wherein the partial reception bandwidth is a report target bandwidth, wherein each of the plurality of FGs is a report unit, and wherein each of the plurality of FGs has a smaller size than the partial reception bandwidth. transmitting a null data packet, NDP, announcement, NDPA, frame announcing transmission of an NDP frame; transmitting the NDP frame; transmitting a trigger frame including resource allocation information related to a resource unit allocated to a station STA; and receiving a feedback frame including a feedback information including the DL channel state by uplink, UL, multi-user, MU, transmission via the allocated resource unit, wherein the feedback information is generated based on the NDP frame, wherein the feedback information is reported for each of a plurality of frequency granularities, FGs, with respect to a partial reception bandwidth of the received NDP frame, wherein the partial reception bandwidth is a report target bandwidth, wherein each of the plurality of FGs is a report unit, and wherein each of the plurality of FGs has a smaller size than the partial reception bandwidth.
A composition comprising at least one siloxane-oxyalkylene copolymer with at least one alkyl ester of fatty acid wherein the copolymer has the general formula MD x D' y M wherein M represents (CH 3) 3 SiO 1/2 or R(CH 3) 2 SiO 1/2, D represents (CH 3) 2 SiO 2/2, D' represents (CH 3)RSiO 2/2, R is a polyether-containing substituent, and the value of x+y is from 50 to 220, and the ratio x/y is from 5 to 15 inclusive, wherein the composition further comprises at least one diluent, wherein the diluent comprises dipropylene glycol and methyl ester of rapeseed oil.
A method of reducing a peak-to-average ratio in a complex-valued signal comprising: detecting peaks in the signal that are above a peak threshold, wherein the peak threshold is in polar form; characterizing a peak shape for each Cartesian component of the detected peaks for which presence is confirmed; generating cancellation pulses corresponding to each of the Cartesian components of the detected peaks for which presence is confirmed based on the characterized peak shapes; and canceling the detected peaks for which presence is confirmed by combining the cancellation pulses with a correspondingly delayed version of the signal; and wherein detecting peaks in the signal that are above the peak threshold comprises evaluating the signal by comparing a sum of unsigned Cartesian components of the signal to the peak threshold and, only for peaks detected above the peak threshold, evaluating the signal at each of those peaks by comparing a sum of squared Cartesian components of the signal at the detected peak to a squared value of the peak threshold, to confirm the presence of the detected peaks. detecting peaks in the signal that are above a peak threshold, wherein the peak threshold is in polar form; characterizing a peak shape for each Cartesian component of the detected peaks for which presence is confirmed; generating cancellation pulses corresponding to each of the Cartesian components of the detected peaks for which presence is confirmed based on the characterized peak shapes; and canceling the detected peaks for which presence is confirmed by combining the cancellation pulses with a correspondingly delayed version of the signal; and wherein detecting peaks in the signal that are above the peak threshold comprises evaluating the signal by comparing a sum of unsigned Cartesian components of the signal to the peak threshold and, only for peaks detected above the peak threshold, evaluating the signal at each of those peaks by comparing a sum of squared Cartesian components of the signal at the detected peak to a squared value of the peak threshold, to confirm the presence of the detected peaks.
A method for determining volume of a concrete load (12, 22, 32, 42), comprising: rotating a concrete load (12, 22, 32, 42) contained within a mixer drum having an inner wall, a non-vertical axis of rotation, and at least one sensor probe mounted on or along the inner wall and configured to transmit in-and-out signal data when rotated through the contained concrete load (12, 22, 32, 42), using (i) probe submergence and non-submergence intervals or (ii) probe entry angle and exit angles, to a processor configured to receive the in-and-out signal data and to calculate a value corresponding to volume of the concrete load (12, 22, 32, 42); the processor performing the volume value calculation by accessing a database having stored values of concrete load volumes as correlated with in-and-out signal data previously obtained from sensor probes; and performing, based on the volume value calculation, at least one function chosen from (i) administering a dosage of water or admixture into the concrete load (12, 22, 32, 42), (ii) expelling a volume of concrete from the mixer drum, (iii) providing an indication of the administered dosage, expelled volume of concrete, or both; and (iv) a combination of any of the foregoing functions; the method further comprising: monitoring at least one of: rheology of the concrete load (12, 22, 32, 42) contained in the rotating mixer drum; tilt angle of the rotating mixer drum, or both; and characterized by performing the calculation of the volume value by accessing a database having stored values of concrete load volumes as correlated with in-and-out signal data previously obtained from sensor probes at various drum rotation speeds, at various rheological conditions, and at various mixer drum tilt angles. rotating a concrete load (12, 22, 32, 42) contained within a mixer drum having an inner wall, a non-vertical axis of rotation, and at least one sensor probe mounted on or along the inner wall and configured to transmit in-and-out signal data when rotated through the contained concrete load (12, 22, 32, 42), using (i) probe submergence and non-submergence intervals or (ii) probe entry angle and exit angles, to a processor configured to receive the in-and-out signal data and to calculate a value corresponding to volume of the concrete load (12, 22, 32, 42); the processor performing the volume value calculation by accessing a database having stored values of concrete load volumes as correlated with in-and-out signal data previously obtained from sensor probes; and performing, based on the volume value calculation, at least one function chosen from (i) administering a dosage of water or admixture into the concrete load (12, 22, 32, 42), (ii) expelling a volume of concrete from the mixer drum, (iii) providing an indication of the administered dosage, expelled volume of concrete, or both; and (iv) a combination of any of the foregoing functions; the method further comprising: monitoring at least one of: rheology of the concrete load (12, 22, 32, 42) contained in the rotating mixer drum; tilt angle of the rotating mixer drum, or both; and characterized by
Electrode for an electrolytically acting doctor blade for pickling and cleaning both planar and curved metal surfaces, comprising a linear metal element supported on the structure of the doctor blade and electrically connected to the electric circuit for initiating the pickling electrolytic action; a pad made of a felt-like absorbent plastic material, resistant to high temperatures and to the chemicals contained in the electrolytic solution used; characterised in that the linear metal element consists in a metal wire (8, 38), and a pad (7, 34, 41) having a constant thickness, made of a felt-like absorbent plastic material, resistant to high temperatures and to the chemicals contained in the electrolytic solution used, is wrapped therearound; the metal wire being connected to the structure of the doctor blade only at the ends of the doctor blade in the active face of the deformable electrode (2, 20, 33, 35).
A cleaning system for containers, comprising a conveyor line for conveying the containers through different cleaning stations, the cleaning stations including a station for treatment with main caustic solution, a station for treatment with pre-caustic solution upstream of the station, a station for treatment with post-caustic solution downstream of the station an a rinsing station, wherein the pre-caustic station and the post-caustic station each comprise at least two treatment stages (VLI to VLIII, NLI to NLIII) and at least one post-caustic treatment stage (NLI to NLIII) is in heat-transmitting contact with a pre-caustic treatment stage (VLI to VLIII) via a heat exchanger in such a way that post-caustic waste water of different temperatures is available, that can be used for the step-wise heating of the containers by heat transfer to the pre-caustic solution, such that the containers are flooded between the pre-caustic station and the main caustic station with different temperatures.
A data recording apparatus comprising: a data acquisition unit configured to acquire measurement data obtained by measuring a measurement target from a plurality of sensors (1, 2, 3,4,5); a data prediction unit configured to predict measurement data acquired from at least any one sensor (1, 2, 3,4,5) of the plurality of sensors (1, 2, 3,4,5) by using measurement data acquired from another sensor (1, 2, 3,4,5) among the plurality of sensors (1, 2, 3,4,5); a decision unit configured to decide a set of sensors (1, 2, 3,4,5) capable of reproducing the measurement data acquired from the plurality of sensors (1, 2, 3,4,5) within a predetermined allowable range by using the measurement data acquired by the data acquisition unit and the measurement data predicted by the data prediction unit, wherein measurement data acquired from a sensor (1, 2, 3,4,5) not included in the set can be reproduced within the predetermined allowable range by using the measurement data acquired from one or more sensors (1, 2, 3,4,5) in the set; a data selection unit configured to select, from among the measurement data acquired from the plurality of sensors (1, 2, 3,4,5), the measurement data acquired from a sensor (1, 2, 3,4,5) included in the set in preference to the measurement data acquired from a sensor (1, 2, 3,4,5) not included in the set; and a data recording unit configured to record the measurement data selected by the data selection unit, wherein the measurement data selected by the data selection unit include the measurement data acquired from sensors (1, 2, 3,4,5) included in the set. a data acquisition unit configured to acquire measurement data obtained by measuring a measurement target from a plurality of sensors (1, 2, 3,4,5); a data prediction unit configured to predict measurement data acquired from at least any one sensor (1, 2, 3,4,5) of the plurality of sensors (1, 2, 3,4,5) by using measurement data acquired from another sensor (1, 2, 3,4,5) among the plurality of sensors (1, 2, 3,4,5); a decision unit configured to decide a set of sensors (1, 2, 3,4,5) capable of reproducing the measurement data acquired from the plurality of sensors (1, 2, 3,4,5) within a predetermined allowable range by using the measurement data acquired by the data acquisition unit and the measurement data predicted by the data prediction unit, wherein measurement data acquired from a sensor (1, 2, 3,4,5) not included in the set can be reproduced within the predetermined allowable range by using the measurement data acquired from one or more sensors (1, 2, 3,4,5) in the set; a data selection unit configured to select, from among the measurement data acquired from the plurality of sensors (1, 2, 3,4,5), the measurement data acquired from a sensor (1, 2, 3,4,5) included in the set in preference to the measurement data acquired from a sensor (1, 2, 3,4,5) not included in the set; and a data recording unit configured to record the measurement data selected by the data selection unit, wherein the measurement data selected by the data selection unit include the measurement data acquired from sensors (1, 2, 3,4,5) included in the set.
A frame lock for a two-wheeler, having a locking bolt which is configured as a rotatable round hoop and which is adjustable between a locking position and an opening position, and having an electromechanical drive device, characterized in that at least one drive band (20a, 20b) is fastened to the locking bolt and is drivable by means of the electromechanical drive device to adjust the locking bolt.
A display subsystem for a virtual image generation system for use by an end user, comprising an optical fiber having a non-PM scanning fiber section; a light source (112, 116) a mechanical scanning drive assembly in which the scanning fiber section is affixed, wherein the mechanical scanning drive assembly is configured for displacing the scanning optical fiber section in order to scan the emitted light beam; and a display configured for receiving the scanned light beam and generating an image for the end user, characterized in that the optical fiber has a polarization maintaining transmission fiber section and the light source (112, 116) is configured for injecting a linearly polarized light beam into the transmission fiber section, such that the linearly polarized light beam is emitted from the scanning fiber section.
A clamping pin intended to be inserted into and clamped in an opening of a medical device comprising a screw having a longitudinal axis, a first clamping element having an inclined surface that is inclined to the longitudinal axis and providing a first part of a clamping section, and a second clamping element having an inclined surface that is inclined to the longitudinal axis and providing a second part of the clamping section which clamping section is complementary to said opening, wherein the inclined surface of the first clamping element is in contact with the inclined surface of the second clamping element, wherein the screw extends at least partly through the second clamping element and at least partly through the first clamping element, which screw engages in one of the clamping elements (2, 3), whereby the rotation of the screw results in relative axial displacement of the clamping elements (2, 3) such that the clamping section becomes radially extended, and wherein the clamping pin comprises a spring, which is arranged such that it provides an axial force onto one of the clamping elements such that said clamping element is pushed against the other clamping element such that the width of the clamping section increases, wherein the increased width comes into contact with said surface of the opening in order to provide a spring-biased connection between the medical device and the clamping pin, wherein the width can be increased further by actuating said screw in order to provide a clamping force, wherein at least one of the clamping elements (2, 3) comprises elements (11, 39) protruding over their circumferential surface (20, 30) or into their circumferential surface (20, 30), and wherein said elements can be used to move said clamping element against or away from the other clamping element, characterized that the inclined surfaces (23, 33) are plane surfaces.
System with a tamper protection device (2, 102, 202) and an object to be protected against tampering, wherein the tamper protection device has a receptacle (16, 116, 220) for at least partially receiving an object to be protected against tampering, the anti-tampering device (2, 102, 202) having a first part (3, 103, 203, 303) and a second part (4, 104, 204), the first and second parts (3, 4, 103, 104, 203, 204, 303) being non-detachably connected by means of a positive-locking connection (15, 110, 210) at least when the object to be protected has a first part (3, 103, 203, 303) and a second part (4, 104, 204) when the object to be protected is arranged in the receptacle (16, 116, 220), the first and second parts (3, 103, 203, 303, 4, 104, 204) being hollow cylinders, and in that the receptacle (16, 116, 220) of the protective device (2, 102, 202) is dimensioned such that the protective device (2, 102, 202) can be mounted with play on the object to be protected, 102, 202) is arranged with play on the object to be protected, namely is rotatable relative to the object to be protected, and wherein the non-detachable connection is a connection which can only be detached if the positive connection is destroyed.
A network element for a wireless communication system locatable to couple at least one base station to an antenna array, wherein the network element comprises: at least one receiver arranged to receive a radio frequency signal from the at least one base station or the antenna array; radio frequency conversion circuitry arranged to down-convert a received radio frequency signal to a baseband signal; analogue-to-digital conversion logic arranged to convert the baseband signal to digitized signals; beam-form processing logic arranged to perform active beam-forming adjustment on the digitized signals; digital-to-analogue conversion logic arranged to convert the beam-form adjusted digitized signals to analogue signals; radio frequency conversion circuitry arranged to up-convert the analogue signals to a radio frequency radio signal for forwarding to the at least one base station if the radio frequency signal was received from the antenna array or for forwarding to the antenna array if the radio frequency signal was received from the at least one base station; wherein the network element is characterised by a wireless modem operably coupled to the beam-form processing logic and arranged to receive and process at least one command received wirelessly and in response thereto perform beam-forming adjustment on the digitized signals. at least one receiver arranged to receive a radio frequency signal from the at least one base station or the antenna array; radio frequency conversion circuitry arranged to down-convert a received radio frequency signal to a baseband signal; analogue-to-digital conversion logic arranged to convert the baseband signal to digitized signals; beam-form processing logic arranged to perform active beam-forming adjustment on the digitized signals; digital-to-analogue conversion logic arranged to convert the beam-form adjusted digitized signals to analogue signals; radio frequency conversion circuitry arranged to up-convert the analogue signals to a radio frequency radio signal for forwarding to the at least one base station if the radio frequency signal was received from the antenna array or for forwarding to the antenna array if the radio frequency signal was received from the at least one base station; wherein the network element is characterised by a wireless modem operably coupled to the beam-form processing logic and arranged to receive and process at least one command received wirelessly and in response thereto perform beam-forming adjustment on the digitized signals.