mhurhangee/ep-ind-claims huggingface dataset:
A macrocyclic derivative having a primary and a secondary side, the derivative consisting of units of the formula: wherein the primary side is hydrophilic and is occupied by the R 1 X 1 groups; and the secondary side is occupied by the R 2 X 2 and the R 3 X 3 groups; wherein: n is an integer from 6 to 8; X 1, X 2, X 3 are linking groups and are independently selected from the group comprising a simple covalent bond or an atom or radical with a valency of at least 2; R 1 and R 3 are hydrophilic groups wherein R 1 comprises an amine group and R 3 is selected from H, (CH 2) 2-4 OH, CH 2 CH(CH 3)OH, (CH 2) 0-2 CH 3 and CO(CH 2) 0-2 CH 3; R 2 is a lipophilic group comprising one or more of an aliphatic chain, an alicyclic, an aromatic, and a heterocyclic group or combinations thereof such that the number of lipophilic atoms in R 2 exceeds the number of non-lipophilic atoms in R 3 causing the secondary side to be lipophilic. wherein the primary side is hydrophilic and is occupied by the R 1 X 1 groups; and the secondary side is occupied by the R 2 X 2 and the R 3 X 3 groups; wherein: n is an integer from 6 to 8; X 1, X 2, X 3 are linking groups and are independently selected from the group comprising a simple covalent bond or an atom or radical with a valency of at least 2; R 1 and R 3 are hydrophilic groups wherein R 1 comprises an amine group and R 3 is selected from H, (CH 2) 2-4 OH, CH 2 CH(CH 3)OH, (CH 2) 0-2 CH 3 and CO(CH 2) 0-2 CH 3; R 2 is a lipophilic group comprising one or more of an aliphatic chain, an alicyclic, an aromatic, and a heterocyclic group or combinations thereof such that the number of lipophilic atoms in R 2 exceeds the number of non-lipophilic atoms in R 3 causing the secondary side to be lipophilic. n is an integer from 6 to 8; X 1, X 2, X 3 are linking groups and are independently selected from the group comprising a simple covalent bond or an atom or radical with a valency of at least 2; R 1 and R 3 are hydrophilic groups wherein R 1 comprises an amine group and R 3 is selected from H, (CH 2) 2-4 OH, CH 2 CH(CH 3)OH, (CH 2) 0-2 CH 3 and CO(CH 2) 0-2 CH 3; R 2 is a lipophilic group comprising one or more of an aliphatic chain, an alicyclic, an aromatic, and a heterocyclic group or combinations thereof such that the number of lipophilic atoms in R 2 exceeds the number of non-lipophilic atoms in R 3 causing the secondary side to be lipophilic.
A radar system having a plurality of radar devices (200, 300) for detecting an object that exists within a predetermined range on the basis of results of reception of a reflected wave in response to a transmitted wave, comprising: a determination unit which determines whether or not the object is a moving body on the basis of the results of reception by at least any of the radar devices (200, 300), characterized by the radar system comprising: a controller which controls as a target a radar device that is installed in the moving direction of the object so that the radar operation is temporarily stopped in the case where the determination unit has determined that the object is a moving body, wherein the plurality of radar devices (200, 300) includes a moving body detection radar device that is superior to other radar devices in terms of the power withstanding performance, and the determination unit and the controller can carry out a process by using the results of reception by the moving body detection radar device. a controller which controls as a target a radar device that is installed in the moving direction of the object so that the radar operation is temporarily stopped in the case where the determination unit has determined that the object is a moving body, wherein the plurality of radar devices (200, 300) includes a moving body detection radar device that is superior to other radar devices in terms of the power withstanding performance, and the determination unit and the controller can carry out a process by using the results of reception by the moving body detection radar device.
A nonwoven fabric comprising a first surface and a second surface and a visually discernible, regular, repeating pattern of three-dimensional features (20, 22, 24) on one of the first or second surface (12, 14), each of the three-dimensional features (20, 22, 24) defining a microzone comprising a first region and a second region, the first and second regions having a difference in values for an intensive property, wherein the intensive property is one or more of: a. thickness, b. basis weight, and c. volumetric density; wherein the intensive property is measured by the Micro-CT Intensive Property Measurement Method disclosed in the description, wherein in at least one of the microzones the first region is hydrophobic and the second region is hydrophilic, wherein hydrophilicity is provided through targeted application of surfactant onto particular regions of the microzones. a. thickness, b. basis weight, and c. volumetric density;
System for holding and storing disconnected lines of a tractor unit, each line comprising, at one end, a coupling configured to be coupled to a complementary coupling of a trailer so as to pneumatically or electrically connect the trailer to the tractor unit, the system for holding and storing comprising: - a first retaining mechanism comprising a bracket designed to be fixed on a rear wall of the tractor unit and at least one spring having a first extremity attached to the bracket and a second extremity on which at least one of the lines can be hung; and - a second retaining mechanism for receiving and holding the couplings arranged at the end of the lines; characterized in that the system for holding and storing further includes a magnetic stabilizer configured for attracting and maintaining the spring in a rest position when the tractor unit is moving without trailer. - a first retaining mechanism comprising a bracket designed to be fixed on a rear wall of the tractor unit and at least one spring having a first extremity attached to the bracket and a second extremity on which at least one of the lines can be hung; and - a second retaining mechanism for receiving and holding the couplings arranged at the end of the lines;
Assembly for the predictive investigation of plants to be picked up with a harvester, comprising: a sensor assembly interacting contactlessly with plants in a field and intended for generating signals concerning at least one property of the plants, a measuring device (88, 92, 94, 100, 102) intended for detecting a property of plants actually picked up by the harvester, and an evaluation device intended for generating calibration data on the basis of signals of the measuring device (88, 92, 94, 100 102) and statistical parameters (108, 110, 116, 118, 120, 122) derived from the signals of the sensor assembly, and also intended for calculating the property of plants to be picked up on the basis of statistical parameters (108, 110, 116, 118, 120, 122) that are derived from the signals of the sensor assembly associated with the plants to be picked up and the calibration data, characterized in that the evaluation device can be operated to determine automatically relationships between the statistical parameters (108, 110, 116, 118, 120, 122) derived from the signals of the sensor assembly and the signals of the measuring device (88, 92, 94, 100, 102) and to take into account these determined relationships when calculating the property of the plants to be picked up. a sensor assembly interacting contactlessly with plants in a field and intended for generating signals concerning at least one property of the plants, a measuring device (88, 92, 94, 100, 102) intended for detecting a property of plants actually picked up by the harvester, and an evaluation device intended for generating calibration data on the basis of signals of the measuring device (88, 92, 94, 100 102) and statistical parameters (108, 110, 116, 118, 120, 122) derived from the signals of the sensor assembly, and also intended for calculating the property of plants to be picked up on the basis of statistical parameters (108, 110, 116, 118, 120, 122) that are derived from the signals of the sensor assembly associated with the plants to be picked up and the calibration data, characterized in that the evaluation device can be operated to determine automatically relationships between the statistical parameters (108, 110, 116, 118, 120, 122) derived from the signals of the sensor assembly and the signals of the measuring device (88, 92, 94, 100, 102) and to take into account these determined relationships when calculating the property of the plants to be picked up.
Device comprising a housing and an apparatus for making electrical contact with a shield of an electrical cable on the housing, wherein the apparatus has a contact clip, an abutment and a closure cap, wherein the cable has a shield, which is surrounded by a cable sheath, and in the mounted state is inserted into an interior of the housing through a cable connection piece and a cable inlet of the housing, wherein the cable is clamped between the contact clip, which is situated in the interior in the housing, and the abutment, wherein the shield is clamped between a supporting sleeve and the contact clip here, and wherein the cable is surrounded on the outside of the housing by the closure cap which, at one end, is fixed to the cable and, at the other end, is fastened to the cable connection piece of the housing, wherein the cable inlet is formed by an opening in a unipartite housing wall of the housing, and the cable connection piece is integrally formed with the housing wall as an integral, tubular part of the housing, characterized in that the contact clip has, in the cable longitudinal direction, two clip sections which are spaced apart from one another, specifically a contact section, in which the shield is clamped, and a strain-relief section, in which the cable sheath is clamped.
A computer-implemented image-based position detection method, comprising: acquiring first depth images captured at a same time by a plurality of photographing devices mounted in different orientations, wherein the plurality of photographing devices are synchronous in time, and the first depth images comprise a target object; acquiring second depth images captured by the plurality of photographing devices when the target object is not in an actual space as reference images; detecting a two-dimensional position of a target object in each of the first depth images, wherein the detecting a two-dimensional position of a target object in each of the first depth images comprises: determining, for each of the photographing devices, the two-dimensional position of the target object in each of the first depth images based on a difference between depth information of the corresponding first depth image and depth information of a corresponding reference image; determining a three-dimensional position of the target object in the actual space based on the two-dimensional position of the target object in each of the first depth images and an internal parameter and an external parameter of each of the plurality of photographing devices; and correcting the two-dimensional position of the target object in each of the first depth images captured by each of the photographing devices based on the three-dimensional position of the target object in the actual space and the external parameter and the internal parameter of the each of the photographing devices using a geometric theory. acquiring first depth images captured at a same time by a plurality of photographing devices mounted in different orientations, wherein the plurality of photographing devices are synchronous in time, and the first depth images comprise a target object; acquiring second depth images captured by the plurality of photographing devices when the target object is not in an actual space as reference images; detecting a two-dimensional position of a target object in each of the first depth images, wherein the detecting a two-dimensional position of a target object in each of the first depth images comprises: determining, for each of the photographing devices, the two-dimensional position of the target object in each of the first depth images based on a difference between depth information of the corresponding first depth image and depth information of a corresponding reference image; determining a three-dimensional position of the target object in the actual space based on the two-dimensional position of the target object in each of the first depth images and an internal parameter and an external parameter of each of the plurality of photographing devices; and correcting the two-dimensional position of the target object in each of the first depth images captured by each of the photographing devices based on the three-dimensional position of the target object in the actual space and the external parameter and the internal parameter of the each of the photographing devices using a geometric theory.
A warning light for optically displaying at least one operating state, in particular a plurality of different operating states, of an item of technical equipment, such as a machine, a system, a vehicle or the like, comprising a base unit for arrangement on the equipment and at least one lighting unit comprising at least one lighting element, wherein the lighting unit has a power supply device for supplying power to the lighting element, wherein the lighting unit comprises at least one control unit for controlling the operating state of the lighting unit by an addressable interface to a digital data transmission unit, wherein at least one first and one second lighting unit each comprising at least one lighting element are provided, wherein the warning light is formed as a signal tower having releasably fixable lighting units, which can be exchanged and swapped without the use of tools, wherein the power supply device comprises at least two power-conducting elements (6.1, 6.2), wherein the data transmission unit has at least one data-conducting element (6.1, 6.2) for digital data transmission, wherein at least one first addressable interface of the first lighting unit and a second addressable interface of the second lighting unit are provided, wherein the addressable interfaces each have a positioning device for identifying and/or forwarding the position from/to adjacent addressable interfaces and/or the data transmission unit.
A topical composition comprising bis-ethylhexyloxyphenol methoxyphenyl triazine, D-panthenol and p-hydroxyacetophenone, wherein the weight-ratio of D-panthenol to bis-ethylhexyloxyphenol methoxyphenyl triazine is at least 1.25.
System (2, 50) for determining a welding or soldering speed, - with an apparatus, in particular a hand-held apparatus (30, 54), for welding or soldering, wherein the system (2, 50) has a detection device (3, 52), which is mounted on the apparatus (30, 54) or integrated therein, characterised - in that the detection device (3, 52) has an illuminating device (4, 58) configured to illuminate a workpiece surface with light which is sufficiently coherent to generate speckle patterns and - in that the detection device (3, 52) has an optical capture device (12, 60) configured to capture speckle patterns of the light reflected from the workpiece surface and - in that the system (2, 50) has a calculation device (14, 64) configured to determine a welding or soldering speed from the captured speckle patterns. - with an apparatus, in particular a hand-held apparatus (30, 54), for welding or soldering, wherein the system (2, 50) has a detection device (3, 52), which is mounted on the apparatus (30, 54) or integrated therein, characterised - in that the detection device (3, 52) has an illuminating device (4, 58) configured to illuminate a workpiece surface with light which is sufficiently coherent to generate speckle patterns and - in that the detection device (3, 52) has an optical capture device (12, 60) configured to capture speckle patterns of the light reflected from the workpiece surface and - in that the system (2, 50) has a calculation device (14, 64) configured to determine a welding or soldering speed from the captured speckle patterns.
Rotor shaft for a turbine rotor of a turbine, in particular a steam turbine, having a shaft base member comprising a first material and at least one ring (15, 16, 23, 24) which is applied to the shaft base member and which comprises a second material, wherein the second material has an identical strength or higher strength and/or a higher corrosion resistance than the first material, wherein at least one blade groove is formed on the ring (15, 16, 23, 24), and wherein the ring (15, 16, 23, 24) is connected to the shaft base member by means of narrow-gap welding in a materially integral manner, characterized in that the ring (15, 16, 23, 24) has a composition of 0.10-0.30% by weight C, 1.0-6.0% by weight Cr, 3.0-6.0% by weight Ni.
Method for final position monitoring by recording and evaluation of switching means (SPla, SPlb; SP2a, SP2b), such as final position switches, or of a group of switching means that are arranged in one or more operating and/or testing units (STE1, STE2) arranged along a movable component, such as a railway switch, of a track system and are switched depending on the position of the movable component, such as a railway switch, wherein a final position signal is generated after a final position is reached, wherein the switching states of the switching means (SP1a, SPlb; SP2a, SP2b) or of the group of switching means in the respective operating and/or testing units (STE1, STE2) are transformed by means of a bus coupler (SM1a, SM1b; SM2a, SM2b) into a digital signal with an individual address associated with the respective switching means (SPla, SPlb; SP2a, SP2b) or group of switching means, and wherein the switching states of all switching means (SP1a, SP1b; SP2a, SP2b) or of groups of switching means are transmitted in the form of digital signals via a bus system with fail-safe signaling to a master module, characterized in that the digital signals of the respective switching means (SPla, SPlb; SP2a, SP2b) or group of switching means are electronically combined into the safe final position signal.
A method of providing content, the method comprising: displaying a first front view of 360° content based on a first user position configured based on a head position of a user and a body position of the user, the 360° content being displayed based on user position information in a 360° space represented as one or more areas, wherein the one or more areas include a first area and a second area adjacent to the first area and wherein the first front view includes first content corresponding to the first area; in response to determining that the user position information indicates that the head position has changed to a changed head position while the body position has remained unchanged, displaying a second front view of the 360° content based on a second user position determined according to the changed head position, the second front view being different from the first front view, wherein the second front view includes second content corresponding to a portion of the first area and a portion of the second area or a portion of the first area and all of the second area depending on the changed head position; and in response to determining that the user position information indicates that both the head position has changed to the changed head position and the body position has changed to a changed body position, continuing to display the first front view based on a third user position determined according to both the changed head position and the changed body position. displaying a first front view of 360° content based on a first user position configured based on a head position of a user and a body position of the user, the 360° content being displayed based on user position information in a 360° space represented as one or more areas, wherein the one or more areas include a first area and a second area adjacent to the first area and wherein the first front view includes first content corresponding to the first area; in response to determining that the user position information indicates that the head position has changed to a changed head position while the body position has remained unchanged, displaying a second front view of the 360° content based on a second user position determined according to the changed head position, the second front view being different from the first front view, wherein the second front view includes second content corresponding to a portion of the first area and a portion of the second area or a portion of the first area and all of the second area depending on the changed head position; and in response to determining that the user position information indicates that both the head position has changed to the changed head position and the body position has changed to a changed body position, continuing to display the first front view based on a third user position determined according to both the changed head position and the changed body position.
A sound producing apparatus comprising: a plurality of sound producing members (5, 5B) having oscillation frequencies different from each other; dampers (8, 8B) that are disposed so as to correspond to respective ones of the sound producing members (5, 5B) and suppress vibration by coming into contact with the respective corresponding sound producing members (5, 5B); a damper operation mechanism (80, 80B) that moves each of the dampers (8, 8B), thereby controlling a state of contact of the damper (8, 8B) with a corresponding one of the sound producing members (5, 5B); a soundboard (7, 7B) that undergoes sympathetic resonance with the sound producing members (5, 5B); a vibrator (50, 50B, 50H, 50L) that vibrates the soundboard (7, 7B); an acquisition unit configured to acquire an audio signal; and a signal output unit configured to: generate a drive signal for driving the vibrator (50, 50B, 50H, 50L) with a vibration corresponding to the acquired audio signal; and output the drive signal to the vibrator (50, 50B, 50H, 50L); characterized in that the sound producing apparatus further comprises a damper control unit configured to drive the damper operation mechanism (80, 80B) so as to change a state of contact between the sound producing members (5, 5B) and the respective corresponding dampers (8, 8B), on the basis of a frequency distribution of the acquired audio signal. a plurality of sound producing members (5, 5B) having oscillation frequencies different from each other; dampers (8, 8B) that are disposed so as to correspond to respective ones of the sound producing members (5, 5B) and suppress vibration by coming into contact with the respective corresponding sound producing members (5, 5B); a damper operation mechanism (80, 80B) that moves each of the dampers (8, 8B), thereby controlling a state of contact of the damper (8, 8B) with a corresponding one of the sound producing members (5, 5B); a soundboard (7, 7B) that undergoes sympathetic resonance with the sound producing members (5, 5B); a vibrator (50, 50B, 50H, 50L) that vibrates the soundboard (7, 7B); an acquisition unit configured to acquire an audio signal; and a signal output unit configured to: generate a drive signal for driving the vibrator (50, 50B, 50H, 50L) with a vibration corresponding to the acquired audio signal; and output the drive signal to the vibrator (50, 50B, 50H, 50L); characterized in that the sound producing apparatus further comprises a damper control unit configured to drive the damper operation mechanism (80, 80B) so as to change a state of contact between the sound producing members (5, 5B) and the respective corresponding dampers (8, 8B), on the basis of a frequency distribution of the acquired audio signal.