mhurhangee/ep-ind-claims huggingface dataset:
Commercial vehicle, comprising: a light source arranged on at least one vehicle side of the commercial vehicle, which is designed to project a controllable pattern onto a ground surface adjacent to the respective vehicle side next to the commercial vehicle; and a control unit in signal connection with the light source, which is designed to detect an operating state of the commercial vehicle and to control the light source for signalling the detected operating state by means of the projected pattern, characterized in that the control unit is further configured to detect a road user on the ground surface of the projection and to control a change in the colour of the projected pattern upon detection of a road user on the ground surface of the projection. a light source arranged on at least one vehicle side of the commercial vehicle, which is designed to project a controllable pattern onto a ground surface adjacent to the respective vehicle side next to the commercial vehicle; and a control unit in signal connection with the light source, which is designed to detect an operating state of the commercial vehicle and to control the light source for signalling the detected operating state by means of the projected pattern, characterized in that the control unit is further configured to detect a road user on the ground surface of the projection and to control a change in the colour of the projected pattern upon detection of a road user on the ground surface of the projection.
A method of providing a hierarchical pyramid of reduced density maps for display on a user device, comprising: storing in a memory a base level data structure of a map of an environment, wherein the base level data structure represents a geometry of possible points of interest (POIs) in the environment; a processor generating a base level map, from the base level data structure, as a parent node of a hierarchical pyramid data structure, and wherein the base level map comprises a number of polygon representations of POIs in the environment, and comprises a metadata defining POI properties; receiving a list of POI types from the user device; and creating a new level map, based on the list of POI types, as a child node of the hierarchical pyramid data structure, wherein the new level map includes a reduced number of polygon representations of POIs relative to the number of polygon representations of POIs in the base level map, wherein creating the new level map comprises determining an importance level of the POIs, based on the POI properties and the list of POI types, and eliminating from the base level map POIs for which the determined importance level is lower than a specified level of importance. storing in a memory a base level data structure of a map of an environment, wherein the base level data structure represents a geometry of possible points of interest (POIs) in the environment; a processor generating a base level map, from the base level data structure, as a parent node of a hierarchical pyramid data structure, and wherein the base level map comprises a number of polygon representations of POIs in the environment, and comprises a metadata defining POI properties; receiving a list of POI types from the user device; and creating a new level map, based on the list of POI types, as a child node of the hierarchical pyramid data structure, wherein the new level map includes a reduced number of polygon representations of POIs relative to the number of polygon representations of POIs in the base level map, wherein creating the new level map comprises determining an importance level of the POIs, based on the POI properties and the list of POI types, and eliminating from the base level map POIs for which the determined importance level is lower than a specified level of importance.
A verification system for use with a brachytherapy treatment delivery system and for confirming the position of a conduit inserted within a patient, comprising: an elongate control element dimensioned for insertion within the conduit, wherein the control element has a proximal end and a distal end, and wherein the control element is included as part of the brachytherapy treatment delivery system; and a drive device coupled to a proximal region of the control element for controlling movement of the control element through the conduit, characterised in that the verification system further comprises: a verification element coupled to a distal region of the control element, wherein the verification element is configured to detect the presence of a reference marker associated with the conduit and communicate a signal indicative of the position of the reference marker relative to the verification element, and wherein the control element is configured to maneuver the verification element along a length of the conduit; a controller associated with the verification element, wherein the controller is configured to communicate with the verification element; and a signal conductor to conduct the signal between the verification element and the controller. an elongate control element dimensioned for insertion within the conduit, wherein the control element has a proximal end and a distal end, and wherein the control element is included as part of the brachytherapy treatment delivery system; and a drive device coupled to a proximal region of the control element for controlling movement of the control element through the conduit, characterised in that the verification system further comprises: a verification element coupled to a distal region of the control element, wherein the verification element is configured to detect the presence of a reference marker associated with the conduit and communicate a signal indicative of the position of the reference marker relative to the verification element, and wherein the control element is configured to maneuver the verification element along a length of the conduit; a controller associated with the verification element, wherein the controller is configured to communicate with the verification element; and a signal conductor to conduct the signal between the verification element and the controller. a verification element coupled to a distal region of the control element, wherein the verification element is configured to detect the presence of a reference marker associated with the conduit and communicate a signal indicative of the position of the reference marker relative to the verification element, and wherein the control element is configured to maneuver the verification element along a length of the conduit; a controller associated with the verification element, wherein the controller is configured to communicate with the verification element; and a signal conductor to conduct the signal between the verification element and the controller.
Method for removing unwanted data from an optically detected, virtual representation of an arch of a jaw comprising teeth and intraoral structures, wherein the method contains the following steps: a. defining an extension line of the representation, which line substantially follows the arch of the jaw, b. stipulating at least one optimization surface which has, in at least one region, a constant distance from the extension line, and which is a cylinder around the extension line; c. defining an inner side and an outer side of the optimization surface; d. determining all elements of the representation outside the outer side of the optimization surface; e. removing all elements outside the optimization surface. a. defining an extension line of the representation, which line substantially follows the arch of the jaw, b. stipulating at least one optimization surface which has, in at least one region, a constant distance from the extension line, and which is a cylinder around the extension line; c. defining an inner side and an outer side of the optimization surface; d. determining all elements of the representation outside the outer side of the optimization surface; e. removing all elements outside the optimization surface.
Device for supporting a displaceable separation element, in particular a sliding door, comprising a rail, which has a middle part and two lateral parts (2"), and with a carriage that is guided in a rail and that comprises a carriage body, which is connectable to the separation element and which is provided with at least one hard-magnetic carriage magnet (12, 120), which exerts a force on at least one ferromagnetic, possibly hard-magnetic rail magnet (22, 22', 22", 220, 2200) that is connected to the rail, said force acting preferably axially parallel against the gravitational force exerted by the separation element on the carriage characterised in that the carriage body comprises rollers and/or at least one sliding element (11; 110), which are mechanically seated within the rail on rail feet, that are provided at the lateral parts (2") and that are directed against one another, such that they can receive the load of the separation element, wherein the carriage magnet (12, 120), possibly each individual of one or more rows of carriage magnets (12, 120), is respectively embedded in a recess of the ferromagnetic carriage body and, except for the pole area orientated against the rail magnet (22, 22', 22", 220, 2200), is enclosed partially or completely by the carriage body, whereby the magnets are inserted with identical pole orientation or changing pole orientation in steps by preferably 90°.
A communication system, comprising: a network device including a plurality of communication ports; a plurality of communication nodes (114, 116, 118, 120) coupled with the network device through the plurality of communication ports; and a controller, wherein the controller is configured to generate a security key and to send a new configuration along with a message authentication code to the network device, wherein the said message authentication code is generated by the said controller using a data in the new configuration and the security key, and wherein the controller is further configured to break the security key into parts and send the parts of the security key to the plurality of communication nodes such that each of the plurality of communication nodes receives one part of the parts of the security key; wherein the network device is configured to retrieve the parts of the secret key from the plurality of communication nodes, wherein the network device includes a network fabrics; wherein the network fabrics is configured to assemble the secret key from the retrieved parts and to generate a new message authentication code using data in the new configuration and the assembled security key; wherein the network device is configured to use the assembled secret key to authenticate the new configuration; and wherein the fabrics is configured to compare the new message authentication code with the message authentication code and to deploy the new configuration upon a successful comparison. a network device including a plurality of communication ports; a plurality of communication nodes (114, 116, 118, 120) coupled with the network device through the plurality of communication ports; and a controller, wherein the controller is configured to generate a security key and to send a new configuration along with a message authentication code to the network device, wherein the said message authentication code is generated by the said controller using a data in the new configuration and the security key, and wherein the controller is further configured to break the security key into parts and send the parts of the security key to the plurality of communication nodes such that each of the plurality of communication nodes receives one part of the parts of the security key; wherein the network device is configured to retrieve the parts of the secret key from the plurality of communication nodes, wherein the network device includes a network fabrics; wherein the network fabrics is configured to assemble the secret key from the retrieved parts and to generate a new message authentication code using data in the new configuration and the assembled security key; wherein the network device is configured to use the assembled secret key to authenticate the new configuration; and wherein the fabrics is configured to compare the new message authentication code with the message authentication code and to deploy the new configuration upon a successful comparison.
A device (1; 1.1; 1.2; 1.3) for portioning and kneading dough, having a chamber drum incrementally rotatable about a drive shaft by way of a main drive, which is provided at the circumferential sections thereof with accommodation chambers for the dough portions to be kneaded, wherein in each accommodation chamber there may be slid a weighing stamp in the radial direction of the chamber drum by means of motion-according coupling with a control device, wherein each weighing stamp is motion-accordingly coupled with the control device by way of a lever shaft, which is provided at one of its lever shaft ends (9.1) with a cam roller, which cam roller being housed in a cam-like curved compulsory guiding of a control device, characterized in that at least one circumferential section of the chamber drum, which has at least one accommodation chamber, is configured so that it may be removed and re-attached in the axial direction together with the weighing stamp situated in the accommodation chamber.
Industrial truck having a drive part and having a load part, which can be raised and lowered relative to the drive part and comprises a load frame, which is supported on a roadway by way of at least one load roller (9a; 9b), wherein the load part can be raised relative to the drive part, by means of a lifting apparatus and the lifting apparatus comprises a scissor mechanism, wherein the scissor mechanism has at least two cross-over scissor links (16a, 17a; 16b, 17b), wherein a first scissor link (16a; 16b) is fastened in a rotatable manner on the load frame by way of a first end and is provided with the load roller (9a; 9b) at the second end, and wherein a second scissor link (17a; 17b) is supported on the drive part by way of a first end and is arranged in a displaceable manner on the underside of the load frame by way of a second end, wherein the second scissor link (17a; 17b) is supported on a supporting element (20a; 20b) by way of the first end, characterized in that the supporting element (20a; 20b) is arranged on the drive part such that it can be adjusted in the vertical direction.
Optical analyzer (10,50,60) comprising: - an optically integrating cavity, the optically integrating cavity formed by at least one optical light diffusing wall and adapted to contain a sample of an agricultural solid product in the cavity; - a light source (13,33), emitting light into the optically integrating cavity, wherein the at least one optical light diffusing wall is utilized to convert emitted light to diffused light, wherein the sample at least partially or completely converts the diffused light to spectrally filtered light; and - a spectral sensor, wherein the sample is confined in the optically integrating cavity while the spectral sensor is being exposed to the spectrally filtered light, characterized in that said optically integrating cavity comprises a transparent sample holder therein adapted to separately hold at least two sample elements (41, 48) of the solid sample, said cavity being openable to introduce the sample elements therein. - an optically integrating cavity, the optically integrating cavity formed by at least one optical light diffusing wall and adapted to contain a sample of an agricultural solid product in the cavity; - a light source (13,33), emitting light into the optically integrating cavity, wherein the at least one optical light diffusing wall is utilized to convert emitted light to diffused light, wherein the sample at least partially or completely converts the diffused light to spectrally filtered light; and - a spectral sensor, wherein the sample is confined in the optically integrating cavity while the spectral sensor is being exposed to the spectrally filtered light,
A method for congestion response in a communication system that comprises routing capability over a first type network and a second type network, comprising: - in a media gateway, a procedure of generating a congestion indication for resources on a route to a target through the first type network, and a procedure of identification of a status of partial congestion for generating a partial congestion notification, wherein the status of partial congestion is a status in which congestion is imminent, the method further comprising the following steps being performed in a call control server of said communication system: - receiving a congestion indication or a partial congestion notification for a route, - storing the congestion indication for marking said route as fully congested or the partial congestion notification for marking said route as partially congested, - upon receiving a subsequent request for initiating a set-up of calls on the route, -- checking if a congestion indication or a partial congestion notification exists for the route, and -- establishing all calls on an alternative route to the target through the second type network during the time that said route is marked as fully congested, and using alternative routes through the second type network for a percentage of calls addressed to said route during a time that said route is marked as partially congested. - in a media gateway, a procedure of generating a congestion indication for resources on a route to a target through the first type network, and a procedure of identification of a status of partial congestion for generating a partial congestion notification, wherein the status of partial congestion is a status in which congestion is imminent, - receiving a congestion indication or a partial congestion notification for a route, - storing the congestion indication for marking said route as fully congested or the partial congestion notification for marking said route as partially congested, - upon receiving a subsequent request for initiating a set-up of calls on the route, -- checking if a congestion indication or a partial congestion notification exists for the route, and -- establishing all calls on an alternative route to the target through the second type network during the time that said route is marked as fully congested, -- checking if a congestion indication or a partial congestion notification exists for the route, and -- establishing all calls on an alternative route to the target through the second type network during the time that said route is marked as fully congested,
A method of preparing an oligosaccharide comprising an aminooxy group, the method comprising: (a) providing an oligosaccharide comprising a first reactive group wherein the first reactive group is a hydrazide group or a carboxyl group; (b) providing an aminooxy compound comprising an aminooxy group and a second reactive group wherein the second reactive group is chosen from hydrazine, hydrazide, semicarbazide, thiosemicarbazide, amine, carboxyl, ester, acyl halide, acyl azide, alkyl halide, anhydride, isothiocyanate, isocyanate and sulfonyl halide groups; and (c) reacting the first reactive group of the oligosaccharide with the second reactive group of the aminooxy compound, thereby preparing the oligosaccharide comprising an aminooxy group. (a) providing an oligosaccharide comprising a first reactive group wherein the first reactive group is a hydrazide group or a carboxyl group; (b) providing an aminooxy compound comprising an aminooxy group and a second reactive group wherein the second reactive group is chosen from hydrazine, hydrazide, semicarbazide, thiosemicarbazide, amine, carboxyl, ester, acyl halide, acyl azide, alkyl halide, anhydride, isothiocyanate, isocyanate and sulfonyl halide groups; and (c) reacting the first reactive group of the oligosaccharide with the second reactive group of the aminooxy compound,
A propfan engine having: a power-producing core (2, 3, 4), a plurality of nozzles (11, 11') for exhausting exhaust gas from the core, and a row of propeller blades rotatable about an axis, the blades being positioned downstream of the exhaust nozzles; characterized in that the exhaust nozzles are rotatable about said axis. a power-producing core (2, 3, 4), a plurality of nozzles (11, 11') for exhausting exhaust gas from the core, and a row of propeller blades rotatable about an axis, the blades being positioned downstream of the exhaust nozzles; characterized in that the exhaust nozzles are rotatable about said axis.
A method of manufacturing a recycled plastic composite, the method comprising the steps of: i) Providing flakes of thermoplastic materials to be recycled; ii) Mixing the thermoplastic flakes, thereby forming a thermoplastic matrix having a first melting temperature. iii) Providing or forming a web-structure of a predetermined thickness from fibers having a second melting temperature higher than the first melting temperature iv) evenly distributing the thermoplastic matrix of thermoplastic flakes over the web-structure, v) Optionally forming or providing a second web-structure and placing it over the thermoplastic matrix, vi) Optionally repeating step iv and v, and vii) heating the web-structure(s) using a thermoforming process; wherein said thermoplastic flakes are obtained by a method comprising the steps of: a) Providing one or more thermoplastic materials to be recycled; b) Comminuting the one or more thermoplastic materials into regrind; c) separating the thermoplastic material flakes from the regrind. i) Providing flakes of thermoplastic materials to be recycled; ii) Mixing the thermoplastic flakes, thereby forming a thermoplastic matrix having a first melting temperature. iii) Providing or forming a web-structure of a predetermined thickness from fibers having a second melting temperature higher than the first melting temperature iv) evenly distributing the thermoplastic matrix of thermoplastic flakes over the web-structure, v) Optionally forming or providing a second web-structure and placing it over the thermoplastic matrix, vi) Optionally repeating step iv and v, and vii) heating the web-structure(s) using a thermoforming process; a) Providing one or more thermoplastic materials to be recycled; b) Comminuting the one or more thermoplastic materials into regrind; c) separating the thermoplastic material flakes from the regrind.