mhurhangee/ep-ind-claims huggingface dataset:
A protocol converter module for use with a gas detector assembly having gas sensor, controller, and a detector transceiver housed within an intrinsically safe detector housing, the converter module comprising: a converter housing having a converter mount configured to securely mount the converter module to the detector housing, the converter housing including a mating interface having a transparent converter window that is configured to align with a transparent detector window provided in the detector housing, the first converter transceiver positioned to align with the converter window such that, when the converter housing is mounted on the detector housing, the first converter transceiver forms line of sight communication with the detector transceiver; a first converter transceiver, within the converter housing, configured to bi-directionally exchange data with the detector transceiver utilizing a first protocol; a second converter transceiver, within the converter housing, configured to bi-directionally exchange data with an external device utilizing a second protocol; and an electronic converter, within the converter housing, coupled to the first and second converter transceivers (142, 152) and configured to convert the data between the first and second protocols, the electronic converter configured to allow data collected from an external user interface on the external device to be sent to the gas detector assembly. a converter housing having a converter mount configured to securely mount the converter module to the detector housing, the converter housing including a mating interface having a transparent converter window that is configured to align with a transparent detector window provided in the detector housing, the first converter transceiver positioned to align with the converter window such that, when the converter housing is mounted on the detector housing, the first converter transceiver forms line of sight communication with the detector transceiver; a first converter transceiver, within the converter housing, configured to bi-directionally exchange data with the detector transceiver utilizing a first protocol; a second converter transceiver, within the converter housing, configured to bi-directionally exchange data with an external device utilizing a second protocol; and an electronic converter, within the converter housing, coupled to the first and second converter transceivers (142, 152) and configured to convert the data between the first and second protocols, the electronic converter configured to allow data collected from an external user interface on the external device to be sent to the gas detector assembly.
A laser process head operative to guide a laser generated beam to a worksite, the laser head comprising: - an optical protective component mounted to a downstream end of a housing of the laser head along a light path; - an optical fiber proximate a periphery of the optical protective component, the optical fiber configured to receive return light which includes at least a portion of light backreflected from the worksite along the light path; - and a sensor (214, 216) optically coupled to the optical fiber and operative to determine a measure of a light power of the return light, characterized in that the protective component is pivotally mounted to the housing of the laser head and is pivotally displaced to an open position thereof for further replacement if the measured light power of the return light exceeds a reference value. - an optical protective component mounted to a downstream end of a housing of the laser head along a light path; - an optical fiber proximate a periphery of the optical protective component, the optical fiber configured to receive return light which includes at least a portion of light backreflected from the worksite along the light path; - and a sensor (214, 216) optically coupled to the optical fiber and operative to determine a measure of a light power of the return light, characterized in that the protective component is pivotally mounted to the housing of the laser head and is pivotally displaced to an open position thereof for further replacement if the measured light power of the return light exceeds a reference value.
A rechargeable battery (100, 200) comprising: a case; an electrode assembly comprising a plurality of electrode sub-assemblies accommodated in the case; a plurality of terminals (140, 145) electrically connected to the electrode assembly; a cap plate sealing the case, the terminals (140,145) protruding through the cap plate; and an insulation plate between the electrode assembly and the terminals (140, 145) and being moveably coupled to the cap plate in order to compensate an imbalance of the electrode assembly, characterised in that the insulation plate is configured to pivot with respect to at least one protrusion (163, 236, 336) of the cap plate (230, 330) or of the insulation plate. a case; an electrode assembly comprising a plurality of electrode sub-assemblies accommodated in the case; a plurality of terminals (140, 145) electrically connected to the electrode assembly; a cap plate sealing the case, the terminals (140,145) protruding through the cap plate; and an insulation plate between the electrode assembly and the terminals (140, 145) and being moveably coupled to the cap plate in order to compensate an imbalance of the electrode assembly, characterised in that the insulation plate is configured to pivot with respect to at least one protrusion (163, 236, 336) of the cap plate (230, 330) or of the insulation plate.
A nanoscale pigment particle composition, comprising: a benzimidazolone pigment, and a sterically bulky stabilizer compound associated non-covalently with the benzimidazolone pigment, wherein the sterically bulky stabilizer compound comprises a substituted pyridine derivative; wherein the nanoscale pigment particles have an average particle diameter as derived from transmission electron microscopy imaging of less than 150 nm, wherein the sterically bulky stabilizer is a compound of the formula: wherein R 1 ' to R 4 ' are the same or different and each represents H, -NH-(C=O)-R', -(C=O)-NH-R'), -NH-R', -NH-(C=O)-NH-R', -NH-(C=O)-O-R', O-(C=O)-NH-R', -(C=O)-O-R', -O-(C=O)-R', branched or linear alkyleneoxy chains, or -OR', wherein R' is predominantly a linear or branched alkyl or cycloaliphatic group that may contain heteroatoms within the alkyl groups, and R y represents a bridging group selected from -(CH 2) n, -X-(CH 2) n X, -[(XCH 2 CH 2) n]X-, -[(C=O)-(CH 2) n -(C=O)]-, -X-[(C=O)-(CH 2) n (C=O)]-X-, -X-[(C=O)-X-(CH 2) n -X-(C=O)]-X-, -[(C=O)-X-(CH 2) n -X-(C=O)]-, wherein X, X 1, and X 2 independently represent O, S, or NH, and n is an integer of from 1 to 50. a benzimidazolone pigment, and a sterically bulky stabilizer compound associated non-covalently with the benzimidazolone pigment, wherein the sterically bulky stabilizer compound comprises a substituted pyridine derivative; wherein the nanoscale pigment particles have an average particle diameter as derived from transmission electron microscopy imaging of less than 150 nm, wherein the sterically bulky stabilizer is a compound of the formula: wherein R 1 ' to R 4 ' are the same or different and each represents H, -NH-(C=O)-R', -(C=O)-NH-R'), -NH-R', -NH-(C=O)-NH-R', -NH-(C=O)-O-R', O-(C=O)-NH-R', -(C=O)-O-R', -O-(C=O)-R', branched or linear alkyleneoxy chains, or -OR', wherein R' is predominantly a linear or branched alkyl or cycloaliphatic group that may contain heteroatoms within the alkyl groups, and R y represents a bridging group selected from -(CH 2) n, -X-(CH 2) n X, -[(XCH 2 CH 2) n]X-, -[(C=O)-(CH 2) n -(C=O)]-, -X-[(C=O)-(CH 2) n (C=O)]-X-, -X-[(C=O)-X-(CH 2) n -X-(C=O)]-X-, -[(C=O)-X-(CH 2) n -X-(C=O)]-, wherein X, X 1, and X 2 independently represent O, S, or NH, and n is an integer of from 1 to 50.
A front attachment for a harvesting machine, with an oscillating cutter and a hydraulic cutter driving device for the oscillating cutter, comprising at least one slave cylinder for driving the oscillating cutter, wherein the at least one slave cylinder is driven by at least one first master cylinder, wherein the at least one first master cylinder has a larger piston displacement than the at least one slave cylinder, characterized in that the at least one slave cylinder is operatively connected to a pivotably mounted crank, wherein the end of the crank is disposed on the cutter.
A method for manufacturing a tube in which a continuously fed tube body which has a tube print of regularly spaced identical individual patterns along a feeding direction is cut between individual patterns in a cutting direction that extends at an angle relative to the feeding direction, and cutting is performed using cutting means which are activated in response to optical scanning of the tube body, characterized in that the optical scanning takes place in strips or lines along the feeding direction in such a manner that an extent of a scanned strip or line pattern along the feeding direction is at least 20 % of a maximum length of the individual patterns in the feeding direction.
Bacillus subtilis IAB/BS03 strain deposited at the DSMZ German Type Culture Collection with accession number DSM 24682, wherein said strain presents antifungal and/or antibacterial activity.
A device operable using touch-less and touchscreen gestures, the device comprising: three ambient light sensors arranged in a non-collinear pattern at respective surface locations of the device and configured to sense light intensity at the respective surface locations; and a processor coupled to the three ambient light sensors and configured to identify a touch-less gesture based on the light intensity sensed by the three ambient light sensors, receive a touchscreen gesture output by a touchscreen system of the device, wherein the touchscreen gesture follows the touch-less gesture, and operate the device based on the touch-less gesture and the touchscreen gesture; characterised in that the processor is further configured to initiate identification of the touch-less gesture based on a trigger signal indicating the start of the touch-less gesture, and wherein a background processing system of the device is configured to monitor the light intensity sensed by the three ambient light sensors and output the trigger signal in response to detection of a change in the light intensity sensed by at least one of the three ambient light sensors that is above a defined threshold. three ambient light sensors arranged in a non-collinear pattern at respective surface locations of the device and configured to sense light intensity at the respective surface locations; and a processor coupled to the three ambient light sensors and configured to identify a touch-less gesture based on the light intensity sensed by the three ambient light sensors, receive a touchscreen gesture output by a touchscreen system of the device, wherein the touchscreen gesture follows the touch-less gesture, and operate the device based on the touch-less gesture and the touchscreen gesture; characterised in that the processor is further configured to initiate identification of the touch-less gesture based on a trigger signal indicating the start of the touch-less gesture, and wherein a background processing system of the device is configured to monitor the light intensity sensed by the three ambient light sensors and output the trigger signal in response to detection of a change in the light intensity sensed by at least one of the three ambient light sensors that is above a defined threshold.
A laser beam combiner (10;110), comprising: a pair of concentric annular shells (12;112) defining an annular cavity (14;114) having a long axis, annular interior wall surfaces and reflective elements (16,18,26;116,118,126) disposed at opposite ends thereof so as to define an annular ring resonator; and an annular solid laser gain medium (20; 120) disposed in the annular cavity (14;114) of the annular ring resonator; characterized by: a plurality of fiber lasers (22; 122) having output ends coupled into the annular cavity (14;114) of the resonator and operable to output respective beams of laser light into the annular cavity (14;114) so as to effect a population inversion in the gain medium (20;120) and thereby cause the gain medium (20;120) to lase and produce an axially directed annular beam of laser light along said long axis, wherein at least one of the reflective elements (26; 126) of the annular ring resonator is operable to reflect a first portion of the laser light back through the annular cavity (14;114) and to couple out a second portion of the laser light in the form of a circular beam of laser light, and wherein at least one of the reflective elements comprises an axicon (18;118). a pair of concentric annular shells (12;112) defining an annular cavity (14;114) having a long axis, annular interior wall surfaces and reflective elements (16,18,26;116,118,126) disposed at opposite ends thereof so as to define an annular ring resonator; and an annular solid laser gain medium (20; 120) disposed in the annular cavity (14;114) of the annular ring resonator; characterized by: a plurality of fiber lasers (22; 122) having output ends coupled into the annular cavity (14;114) of the resonator and operable to output respective beams of laser light into the annular cavity (14;114) so as to effect a population inversion in the gain medium (20;120) and thereby cause the gain medium (20;120) to lase and produce an axially directed annular beam of laser light along said long axis, wherein at least one of the reflective elements (26; 126) of the annular ring resonator is operable to reflect a first portion of the laser light back through the annular cavity (14;114) and to couple out a second portion of the laser light in the form of a circular beam of laser light, and wherein at least one of the reflective elements comprises an axicon (18;118). a plurality of fiber lasers (22; 122) having output ends coupled into the annular cavity (14;114) of the resonator and operable to output respective beams of laser light into the annular cavity (14;114) so as to effect a population inversion in the gain medium (20;120) and thereby cause the gain medium (20;120) to lase and produce an axially directed annular beam of laser light along said long axis, wherein at least one of the reflective elements (26; 126) of the annular ring resonator is operable to reflect a first portion of the laser light back through the annular cavity (14;114) and to couple out a second portion of the laser light in the form of a circular beam of laser light, and wherein at least one of the reflective elements comprises an axicon (18;118).
An organic electroluminescent device comprising: first and second electrodes (102, 104) facing each other on a substrate; first and second emission layers (106, 116) formed between the first and second electrodes (102, 104); a hole transport layer formed between the first electrode and the first emission layer; an electron transport layer formed between the second electrode and the second emission layer; and at least one emission control layer formed between the first and second emission layers (106, 116) and being formed of the same material and having the same hole mobility as the hole transport layer, wherein each of the first and second emission layers (106, 116) comprises a luminescent host and a luminescent dopant, wherein the luminescent hosts of the first and second emission layers (106, 116) are formed of different materials, and the luminescent dopant of the first emission layer has a lower doping concentration than the luminescent dopant of the second emission layer characterized in that the first and second emission layers (106, 116) achieve a blue color. first and second electrodes (102, 104) facing each other on a substrate; first and second emission layers (106, 116) formed between the first and second electrodes (102, 104); a hole transport layer formed between the first electrode and the first emission layer; an electron transport layer formed between the second electrode and the second emission layer; and at least one emission control layer formed between the first and second emission layers (106, 116) and being formed of the same material and having the same hole mobility as the hole transport layer, wherein each of the first and second emission layers (106, 116) comprises a luminescent host and a luminescent dopant, wherein the luminescent hosts of the first and second emission layers (106, 116) are formed of different materials, and the luminescent dopant of the first emission layer has a lower doping concentration than the luminescent dopant of the second emission layer characterized in that the first and second emission layers (106, 116) achieve a blue color.
A process for the controlled gasification of a carbonaceous feedstock, comprising: pyrolizing the feedstock in a high-temperature pyrolysis unit including a plurality of successive heating chambers each comprising a burner and an exhaust port and an axially adjustable chamber separation wall and each operated at a specific temperature and a specific dwell time to produce a gas product and a solid product, wherein the gas product comprises methane and noxious chemicals and the solid product comprises carbon; and controlling the pyrolizing step using feedback related to constituents of the gas product, thereby providing a predictable and stable gas product from an unknown and variable feedstock. pyrolizing the feedstock in a high-temperature pyrolysis unit including a plurality of successive heating chambers each comprising a burner and an exhaust port and an axially adjustable chamber separation wall and each operated at a specific temperature and a specific dwell time to produce a gas product and a solid product, wherein the gas product comprises methane and noxious chemicals and the solid product comprises carbon; and controlling the pyrolizing step using feedback related to constituents of the gas product, thereby providing a predictable and stable gas product from an unknown and variable feedstock.
A below grade, blind side, waterproofing sheet membrane with adhesive and moderate reflectivity granular particle layer to fully bond to concrete/shotcrete, comprising: (a) at least one sheet membrane having a first membrane surface, and a second membrane surface; (b) at least one first adhesive layer having a first adhesive surface, and a second adhesive surface, and wherein said second adhesive surface is in secure contact with at least a portion of said first membrane surface; and (c) at least one layer of at least one moderate reflectivity granular particle layer, having a first particle layer surface, and a second particle layer surface, and wherein said second particle layer surface is in secure contact with at least a portion of said first adhesive surface, and wherein reflectivity of said at least one layer of at least one moderate reflectivity granular particle layer is between 35 percent reflectivity to below 55 percent reflectivity on a standard reflectivity scale, wherein the reflectivity is measured in percentage reflectance by a 45/0 degree reflectometer. (a) at least one sheet membrane having a first membrane surface, and a second membrane surface; (b) at least one first adhesive layer having a first adhesive surface, and a second adhesive surface, and wherein said second adhesive surface is in secure contact with at least a portion of said first membrane surface; and (c) at least one layer of at least one moderate reflectivity granular particle layer, having a first particle layer surface, and a second particle layer surface, and wherein said second particle layer surface is in secure contact with at least a portion of said first adhesive surface, and wherein reflectivity of said at least one layer of at least one moderate reflectivity granular particle layer is between 35 percent reflectivity to below 55 percent reflectivity on a standard reflectivity scale, wherein the reflectivity is measured in percentage reflectance by a 45/0 degree reflectometer.
A forage harvester for chopping harvested material, comprising: - at least one conditioning unit for conditioning chopped harvested material, as well as - at least two track roller units disposed on opposing ends of a front axle of the forage harvester. wherein the harvested material can be at least partially crushed by means of the conditioning unit, wherein each of the track roller units has two main wheels which are one behind the other in the longitudinal direction of the forage harvester and opposite each other, at least one auxiliary wheel disposed between the main wheels, as well as at least one endless belt which encompasses the main wheels, characterized in that starting from an active position in which it is operatively connected to the rest of the working units of the forage harvester, the conditioning unit can be transferred into a passive position in which the conditioning unit is out of operative connection, wherein, starting from its passive position, the conditioning unit can be removed from the rest of the forage harvester, and a free cross section is located on a removal side of the forage harvester through which, starting from its passive position, the conditioning unit can be moved out of the rest of the forage harvester laterally of the forage harvester as well as over the track roller unit associated with the removal side. - at least one conditioning unit for conditioning chopped harvested material, as well as - at least two track roller units disposed on opposing ends of a front axle of the forage harvester.
A method for changing an input type by a receiving device in an input system using Universal Plug and Play, UPnP, comprising: receiving, by the receiving device, input data from a transmitting device; and the method further characterized by: if an input type of the receiving device is changed, transmitting, by the receiving device, information about the changed input type to the transmitting device, and receiving a report descriptor including information about a format of input data according to the changed input type from the transmitting device. receiving, by the receiving device, input data from a transmitting device; and the method further characterized by: if an input type of the receiving device is changed, transmitting, by the receiving device, information about the changed input type to the transmitting device, and receiving a report descriptor including information about a format of input data according to the changed input type from the transmitting device. if an input type of the receiving device is changed, transmitting, by the receiving device, information about the changed input type to the transmitting device, and receiving a report descriptor including information about a format of input data according to the changed input type from the transmitting device.