mhurhangee/ep-ind-claims huggingface dataset:
Floor panel (1a, 1b) for constructing a floor, comprising: - a tongue extending from a first side wall and comprising an upper surface and a lower surface; - a groove provided in a second side wall, opposite the first side wall and comprising an upper surface and lower surface (8a,8b); - wherein the tongue comprises a protrusion at its upper surface, - wherein the groove comprises a cavity in its upper surface, - wherein the groove of a first panel is adapted to receive the tongue of a second panel, 14 - wherein the protrusion of the tongue of the second panel and the cavity of the groove in the first panel counteract and prevent horizontal separation in a direction transversal to a plane parallel to the first side wall of the second panel and the second side wall of the first panel, characterized in that the upper surface and the lower surface of the groove extend at least partially in a downward direction from the second side wall to its distal end and the surfaces of the first and second side wall parts above and below the groove and the tongue extend in substantially the same vertical plane and the floor panel is made from a composite of wood fibers and polyvinylchloride, said composite having a Young modulus of more than 4 GPa. - a tongue extending from a first side wall and comprising an upper surface and a lower surface; - a groove provided in a second side wall, opposite the first side wall and comprising an upper surface and lower surface (8a,8b); - wherein the tongue comprises a protrusion at its upper surface, - wherein the groove comprises a cavity in its upper surface, - wherein the groove of a first panel is adapted to receive the tongue of a second panel, 14 - wherein the protrusion of the tongue of the second panel and the cavity of the groove in the first panel counteract and prevent horizontal separation in a direction transversal to a plane parallel to the first side wall of the second panel and the second side wall of the first panel, characterized in that the upper surface and the lower surface of the groove extend at least partially in a downward direction from the second side wall to its distal end and the surfaces of the first and second side wall parts above and below the groove and the tongue extend in substantially the same vertical plane and the floor panel is made from a composite of wood fibers and polyvinylchloride, said composite having a Young modulus of more than 4 GPa.
Molybdenum-silicon-boron alloy consisting of the composition Mo-(x)Si-(y)B-(z)Zr, where x = 13at% to 18at%, y = 8at% to 12at%, and z = 0.5at% to 2at% of zirconium (Zr). x = 13at% to 18at%, y = 8at% to 12at%, and z = 0.5at% to 2at% of zirconium (Zr).
Use of a medium container for operating media of a motor vehicle for preventing sloshing noises, which medium container has a casing which encloses a receiving volume and which has a front wall arranged in a direction of travel, a rear wall situated opposite said front wall, and a top wall, and also side walls and a base wall, wherein the medium arranged in the medium container can be caused, by load alterations of the motor vehicle, to move such that a sloshing wave having a liquid wall can form, wherein at least one pressure equalization element is provided which, as viewed in cross section, extends at least from the front wall to the rear wall over the entire length of the medium container, which at least one pressure equalization element has a first opening in the interior of the medium container at least at the front wall, which first opening is arranged in a first region within the medium container, wherein the first region can be formed by the liquid wall of the sloshing wave, which is in contact by way of its wave crest with the top wall, by the front wall and by the top wall, and which at least one pressure equalization element has a second opening in the interior of the medium container at least at the rear wall, which second opening is arranged in a second region within the medium container, wherein the second region can be formed by the liquid wall of the sloshing wave, which is in contact by way of its wave crest with the top wall, by the rear wall and by the top wall, and which at least one pressure equalization element has a connecting section which connects the two openings arranged within the medium container from the respective front wall to the rear wall, wherein the first region can be separated from the second region by the liquid wall, which is in contact by way of its wave crest with the top wall, wherein the connecting section forms a completely closed and continuous air path between the first opening and the second opening.
Ion chromatography apparatus comprising: (a) a liquid sample injection loop, (b) an ion concentrator (32, 68) including ion concentration medium for retaining ionic species, (c) an ion separator (40, 72) comprising ion separation medium, (d) an eluent generator (36, 70), (e) a single pump only in said apparatus, and (f) valving including the following modes: a first mode in which flow is blocked between said sample injection loop and said ion concentrator, and said pump is arranged to pump fluid from said eluent generator through said ion concentrator and into said ion separator, and a second mode in which said sample injection loop is in fluid communication with said ion concentrator, and said pump is arranged to pump fluid from said sample injection loop through said ion concentrator and into said eluent generator. (a) a liquid sample injection loop, (b) an ion concentrator (32, 68) including ion concentration medium for retaining ionic species, (c) an ion separator (40, 72) comprising ion separation medium, (d) an eluent generator (36, 70), (e) a single pump only in said apparatus, and (f) valving including the following modes: a first mode in which flow is blocked between said sample injection loop and said ion concentrator, and said pump is arranged to pump fluid from said eluent generator through said ion concentrator and into said ion separator, and a second mode in which said sample injection loop is in fluid communication with said ion concentrator, and said pump is arranged to pump fluid from said sample injection loop through said ion concentrator and into said eluent generator. a first mode in which flow is blocked between said sample injection loop and said ion concentrator, and said pump is arranged to pump fluid from said eluent generator through said ion concentrator and into said ion separator, and a second mode in which said sample injection loop is in fluid communication with said ion concentrator, and said pump is arranged to pump fluid from said sample injection loop through said ion concentrator and into said eluent generator.
Method for processing in a system for telecommunication comprising a first module for wireless telecommunication in accordance with a first wireless telecommunication protocol, said first module being adapted to receive a signal comprising at least a first signal in accordance with the first protocol on a wireless transmission channel and comprising an automatic gain calculation unit which determines a gain value as a function of the signal received in said wireless transmission channel and an amplifier adapted to amplify said received signal as a function of a gain value determined by the automatic gain calculation unit; the method being characterised in that, the system for telecommunication comprising a second module for wireless telecommunication adapted to intermittently transmit second signals on the wireless communication channel in accordance with a second communication protocol, each second signal having a duration less than T max, the method comprises a step in which, when a second signal is determined, by the automatic gain calculation unit, as being present in the signal received by the first module in said wireless transmission channel, a current gain value is then determined by the automatic gain calculation unit independently of the power of said second signal, the automatic gain calculation unit detects an increase in power of said received signal and, following the detection of said increase, updates the gain value as a function of the signal of power so increased only if the increase in amplitude continues beyond a time equal to T max.
Piezoelectric pressure sensor which is suitable for measuring high pressures, having a housing which can be inserted into a measuring bore and a piezoelectric measuring element which is arranged between a sensor diaphragm arranged on the front side of the housing and an inner housing shoulder (11a; 11b), wherein the piezoelectric measuring element consists of a single crystal element (6a; 6b), characterised in that the crystal element (6a; 6b) is clamped with its base surface and its opposite cover surface between a pressure plunger of the sensor diaphragm and a dissipating electrode supported on the housing shoulder (11a; 11b), and in that a lateral surface (7a; 7b) of the crystal element (6a; 6b) connecting the base surface to the cover surface largely rests against an electrically insulating positioning sleeve (12a; 12b) arranged in the housing.
An imaging apparatus, comprising: an imaging substrate provided with an imaging device that produces image data, the imaging substrate including the imaging device and a first connector and being arranged so that an imaging surface of the imaging device is positioned on an image-forming plane of a lens; an intermediate substrate including a second connector connected to the first connector, movement of the intermediate substrate is restricted by the imaging substrate due to the latter being connected through the first connector with the second connector; and a connector substrate movably connected to the intermediate substrate within a predetermined range in a direction intersecting a first direction, the connector substrate including a terminal configured to be connectable in the first direction to an external connector to which the image data is output, being connected to the intermediate substrate via at least one of a rigid-flexible substrate, a cable or a wiring harness, and being movable in the direction intersecting the first direction to the intermediate substrate. an imaging substrate provided with an imaging device that produces image data, the imaging substrate including the imaging device and a first connector and being arranged so that an imaging surface of the imaging device is positioned on an image-forming plane of a lens; an intermediate substrate including a second connector connected to the first connector, movement of the intermediate substrate is restricted by the imaging substrate due to the latter being connected through the first connector with the second connector; and a connector substrate movably connected to the intermediate substrate within a predetermined range in a direction intersecting a first direction, the connector substrate including a terminal configured to be connectable in the first direction to an external connector to which the image data is output, being connected to the intermediate substrate via at least one of a rigid-flexible substrate, a cable or a wiring harness, and being movable in the direction intersecting the first direction to the intermediate substrate.
Apparatus for dispensing absorbent sheet products comprising - a store with an absorbent web which is to be dispensed; - a conveying means with at least one conveying element (20, 22) for feeding the absorbent web; and - means for severing the web so as to form absorbent sheet products; - means (34; 34a, 34b, 34c, 34d) for collecting electrical charges caused by static electricity comprising at least one brush element; and - means (40; 44; 46) for neutralising and/or consuming the electrical charges; characterized in that the apparatus further comprises - means for directing, by means of an electrically conductive connection, the electrical charges to another element within the apparatus for dispensing; wherein - the means (40; 44; 46) for neutralising the electrical charges is in contact with a positively charged element inside the dispenser; and - comprises at least one second brush being in contact with the positively charged element. - a store with an absorbent web which is to be dispensed; - a conveying means with at least one conveying element (20, 22) for feeding the absorbent web; and - means for severing the web so as to form absorbent sheet products; - means (34; 34a, 34b, 34c, 34d) for collecting electrical charges caused by static electricity comprising at least one brush element; and - means (40; 44; 46) for neutralising and/or consuming the electrical charges; - means for directing, by means of an electrically conductive connection, the electrical charges to another element within the apparatus for dispensing; wherein - the means (40; 44; 46) for neutralising the electrical charges is in contact with a positively charged element inside the dispenser; and - comprises at least one second brush being in contact with the positively charged element.
An in-ear receiver, in particular a headset or hearing aid, comprising a housing, which includes at least one ear canal section, which is inserted into an ear canal of a wearer when the in-ear receiver is used as intended, and at least one outer contour adapted at least in one section to the ear canal and therefore having a freeform geometry, a sound transducer arranged in the housing, and at least one resonant cavity, which is formed in the housing and is divided by the sound transducer into a front volume and a rear volume, characterized in that the sound transducer is a MEMS sound transducer, the front volume and/or the rear volume have/has an inner contour adapted to the ear canal, so that this has a freeform geometry, that the outer contour of the housing in the area of the front volume and/or the rear volume has a freeform geometry corresponding to the inner contour and that the ear canal section is produced in a 3D printing process after the auditory canal of the respective user is measured. which includes at least one ear canal section, which is inserted into an ear canal of a wearer when the in-ear receiver is used as intended, and at least one outer contour adapted at least in one section to the ear canal and therefore having a freeform geometry, a sound transducer arranged in the housing, and at least one resonant cavity, which is formed in the housing and is divided by the sound transducer into a front volume and a rear volume, characterized in that the sound transducer is a MEMS sound transducer, the front volume and/or the rear volume have/has an inner contour adapted to the ear canal, so that this has a freeform geometry, that the outer contour of the housing in the area of the front volume and/or the rear volume has a freeform geometry corresponding to the inner contour and that the ear canal section is produced in a 3D printing process after the auditory canal of the respective user is measured.
A reactive hot-melt adhesive comprising two separately present components A and B, each containing one or more polymers A and B having different functional groups, wherein these groups are able to react with each other under the action of temperature, and - the functional groups that are reactive with each other are selected from hydroxy, amine, carboxylic acid, anhydride and epoxy groups, - non-reactive polymers and/or additives are contained in at least one of the components, - the components are present in spatially separated areas, wherein the adhesive has a first temperature in a range between 80 and 150 °C in which the components melt and can be mixed with each other without the functional groups reacting with each other, the adhesive having a second temperature range between 130 and 190 °C in which it can melt and become chemically cross-linked, and wherein the second temperature is above the first temperature. - the functional groups that are reactive with each other are selected from hydroxy, amine, carboxylic acid, anhydride and epoxy groups, - non-reactive polymers and/or additives are contained in at least one of the components, - the components are present in spatially separated areas,
An amusement park ride system, comprising: a ride vehicle positioned on a ride path and configured to move along the ride path; a plurality of retro-reflective markers (24A-D) positioned on the ride vehicle, along the ride path, or both; an emission subsystem configured to emit electromagnetic radiation toward the plurality of retro-reflective markers; a detection subsystem comprising at least one optical filter and configured to detect a pattern of retro-reflection of the electromagnetic radiation from the plurality of retro-reflective markers by detecting wavelengths of electromagnetic radiation retro-reflected by the plurality of retro-reflective markers while filtering, by the at least one optical filter, wavelengths of electromagnetic radiation that are not retro-reflected by the plurality of retro-reflective markers, the at least one optical filter being configured to also utilise directionality associated with the retro-reflection to perform the filtering; and a control system communicatively coupled to the detection subsystem and comprising processing circuitry configured to: monitor the pattern of retro-reflection of the electromagnetic radiation from the plurality of retro-reflective markers for changes; and track movement of the ride vehicle in space and time as it moves along the ride path based on changes in the pattern of retro-reflected electromagnetic radiation detected by the detection subsystem. a ride vehicle positioned on a ride path and configured to move along the ride path; a plurality of retro-reflective markers (24A-D) positioned on the ride vehicle, along the ride path, or both; an emission subsystem configured to emit electromagnetic radiation toward the plurality of retro-reflective markers; a detection subsystem comprising at least one optical filter and configured to detect a pattern of retro-reflection of the electromagnetic radiation from the plurality of retro-reflective markers by detecting wavelengths of electromagnetic radiation retro-reflected by the plurality of retro-reflective markers while filtering, by the at least one optical filter, wavelengths of electromagnetic radiation that are not retro-reflected by the plurality of retro-reflective markers, the at least one optical filter being configured to also utilise directionality associated with the retro-reflection to perform the filtering; and a control system communicatively coupled to the detection subsystem and comprising processing circuitry configured to: monitor the pattern of retro-reflection of the electromagnetic radiation from the plurality of retro-reflective markers for changes; and track movement of the ride vehicle in space and time as it moves along the ride path based on changes in the pattern of retro-reflected electromagnetic radiation detected by the detection subsystem. monitor the pattern of retro-reflection of the electromagnetic radiation from the plurality of retro-reflective markers for changes; and track movement of the ride vehicle in space and time as it moves along the ride path based on changes in the pattern of retro-reflected electromagnetic radiation detected by the detection subsystem.
A hybrid photosensitive resin, characterized in that the hybrid photosensitive resin has a structure represented by general formula: R 1 represents a C 1 -C 40 linear or branched m-valent alkyl group, a C 2 -C 20 m-valent alkenyl group, or a C 6 -C 40 m-valent aryl group, wherein -CH 2 - may be optionally substituted with an oxygen atom, -NH-, or a 1,4-phenylene group, provided that two -O-'s are not directly connected; and optionally, one or more hydrogen atoms in these groups may be each independently substituted with a group selected from an alkyl group, a halogen, and a nitro group; R 2 represents a C 1 -C 20 linear or branched alkylene group, wherein -CH 2 - in the main chain may be optionally substituted with an oxygen atom, provided that two -O-'s are not directly connected, and optionally, one or more hydrogen atoms in the group may be each independently substituted with a group selected from an alkyl group, a halogen, and a nitro group; R 3 represents hydrogen, a halogen, a nitro group, a C 1 -C 20 linear or branched alkyl group, a C 3 -C 20 cycloalkyl group, a C 4 -C 20 cycloalkylalkyl group, a C 4 -C 20 alkylcycloalkyl group, a C 2 -C 10 alkenyl group, or a C 6 -C 20 aryl group, and optionally, one or more hydrogen atoms in these groups may be each independently substituted with a group selected from an alkyl group, a halogen, and a nitro group; and R represents hydrogen or a methyl group; and m represents an integer of 1-8. R 1 represents a C 1 -C 40 linear or branched m-valent alkyl group, a C 2 -C 20 m-valent alkenyl group, or a C 6 -C 40 m-valent aryl group, wherein -CH 2 - may be optionally substituted with an oxygen atom, -NH-, or a 1,4-phenylene group, provided that two -O-'s are not directly connected; and optionally, one or more hydrogen atoms in these groups may be each independently substituted with a group selected from an alkyl group, a halogen, and a nitro group; R 2 represents a C 1 -C 20 linear or branched alkylene group, wherein -CH 2 - in the main chain may be optionally substituted with an oxygen atom, provided that two -O-'s are not directly connected, and optionally, one or more hydrogen atoms in the group may be each independently substituted with a group selected from an alkyl group, a halogen, and a nitro group; R 3 represents hydrogen, a halogen, a nitro group, a C 1 -C 20 linear or branched alkyl group, a C 3 -C 20 cycloalkyl group, a C 4 -C 20 cycloalkylalkyl group, a C 4 -C 20 alkylcycloalkyl group, a C 2 -C 10 alkenyl group, or a C 6 -C 20 aryl group, and optionally, one or more hydrogen atoms in these groups may be each independently substituted with a group selected from an alkyl group, a halogen, and a nitro group; and R represents hydrogen or a methyl group; and m represents an integer of 1-8.
Finishing process for making blade slots in a rotor disk, each slot being defined by a bottom surface and by two lateral surfaces (10, 10a), which are joined to said bottom surface and are symmetrical with respect to a symmetry plane; the finishing process being carried out after a roughing process and comprising, for each said slot: - a bottom finishing step, wherein said bottom surface is ground by means of a suitable grinder; and - a lateral finishing step, wherein said lateral surfaces (10, 10a) are ground using a finger grinder; characterized in that the lateral finishing step of each said slot comprises at least one pass of said finger grinder along a trochoidal path, which comprises the combination of: - a translation component along a feed direction lying on said symmetry plane, and - a revolution component along a loop trajectory lying on a plane orthogonal to said symmetry plane; and in that the amplitude of said loop trajectory is set in such a manner as to bring said finger grinder into contact with said lateral surfaces (10, 10a) alternately and remove stock from both said lateral surfaces (10, 10a) during the same said pass. - a bottom finishing step, wherein said bottom surface is ground by means of a suitable grinder; and - a lateral finishing step, wherein said lateral surfaces (10, 10a) are ground using a finger grinder; - a translation component along a feed direction lying on said symmetry plane, and - a revolution component along a loop trajectory lying on a plane orthogonal to said symmetry plane;