mhurhangee/ep-ind-claims huggingface dataset:
Method for assembling a cab for a railway vehicle, comprising the following steps: - manufacturing a mecano-welded structure, the structure being adapted to form a floor and side walls of the cab, the structure defining an interior space which is to receive pieces of cab equipment, the side walls together defining at least one opening of the structure, the opening being opposite the floor in a direction which is to be vertical, - fixing at least one of the pieces of cab equipment to the structure, the fixed piece of cab equipment being transported into the interior space beforehand via the opening, characterised by the method step of - fixing a roof element to the structure, the roof element closing the opening at least partially, fixing of the roof element comprising bonding a first bonding surface defined by the roof element to a second bonding surface defined by the structure. - manufacturing a mecano-welded structure, the structure being adapted to form a floor and side walls of the cab, the structure defining an interior space which is to receive pieces of cab equipment, the side walls together defining at least one opening of the structure, the opening being opposite the floor in a direction which is to be vertical, - fixing at least one of the pieces of cab equipment to the structure, the fixed piece of cab equipment being transported into the interior space beforehand via the opening, - fixing a roof element to the structure, the roof element closing the opening at least partially, fixing of the roof element comprising bonding a first bonding surface defined by the roof element to a second bonding surface defined by the structure.
An insulated glazing unit comprising: a first glass element; a second glass element, the first and second glass elements (1, 2) having congruent shapes; and a plurality of spacers disposed between the first glass element and the second glass element to space the first glass element from the second glass element, each of the spacers elongated along an axis, wherein the spacers are in rolling, line contact with surfaces of both the first glass element and the second glass element, and characterized in that the spacers are oriented on the surface such that the axis of at least one of the spacers is tangent to an imaginary circular line superimposed on the surface, and at least another of the spacers is tangent to the same imaginary circular line or a different imaginary circular line having a common center with the first imaginary circular line. a first glass element; a second glass element, the first and second glass elements (1, 2) having congruent shapes; and a plurality of spacers disposed between the first glass element and the second glass element to space the first glass element from the second glass element, each of the spacers elongated along an axis, wherein the spacers are in rolling, line contact with surfaces of both the first glass element and the second glass element, and characterized in that the spacers are oriented on the surface such that the axis of at least one of the spacers is tangent to an imaginary circular line superimposed on the surface, and at least another of the spacers is tangent to the same imaginary circular line or a different imaginary circular line having a common center with the first imaginary circular line.
A method comprising: detecting a traffic condition by a network device in a loop-free routing topology comprising routing arcs for reaching a destination device, each routing arc comprising a first edge, a second edge, and at least a third network device configured for routing any network traffic along the routing arc toward the destination device and exiting via any one of the first or second edges of the routing arc, the traffic condition proximate to the first edge of at least one of the routing arcs in which the network device is positioned; and the network device sending a management frame over a data plane of the at least one routing arc toward the corresponding second edge, the management frame requesting a change in load balancing for at least one of an identified traffic class based on the detected traffic condition. detecting a traffic condition by a network device in a loop-free routing topology comprising routing arcs for reaching a destination device, each routing arc comprising a first edge, a second edge, and at least a third network device configured for routing any network traffic along the routing arc toward the destination device and exiting via any one of the first or second edges of the routing arc, the traffic condition proximate to the first edge of at least one of the routing arcs in which the network device is positioned; and the network device sending a management frame over a data plane of the at least one routing arc toward the corresponding second edge, the management frame requesting a change in load balancing for at least one of an identified traffic class based on the detected traffic condition.
A method for fabricating patterns on the surface of a layer of a device, the method comprising: providing at least one layer (130, 230) of said device; adding at least one alkali metal; controlling the temperature of the at least one layer, thereby forming a plurality of embossings (1300, 1305) at the surface of the at least one layer, at least a portion of the plurality of embossings resulting from a self-assembly process comprising: - the forming of a plurality of alkali crystal compounds from the at least one alkali metal, - the self-assembling of the alkali crystal compounds into the surface of the at least one layer, thereby forming at least a first line of regularly spaced embossings that is adjacent and parallel to at least a second line of regularly spaced embossings within at least one region of the at least one layer. providing at least one layer (130, 230) of said device; adding at least one alkali metal; controlling the temperature of the at least one layer, thereby forming a plurality of embossings (1300, 1305) at the surface of the at least one layer, at least a portion of the plurality of embossings resulting from a self-assembly process comprising: - the forming of a plurality of alkali crystal compounds from the at least one alkali metal, - the self-assembling of the alkali crystal compounds into the surface of the at least one layer, thereby forming at least a first line of regularly spaced embossings that is adjacent and parallel to at least a second line of regularly spaced embossings within at least one region of the at least one layer. - the forming of a plurality of alkali crystal compounds from the at least one alkali metal, - the self-assembling of the alkali crystal compounds into the surface of the at least one layer, thereby forming at least a first line of regularly spaced embossings that is adjacent and parallel to at least a second line of regularly spaced embossings within at least one region of the at least one layer.
A snare for use with an endoscope, the snare comprising: a support assembly having a base and an elongated hollow tube; a transmitting assembly having a handle movable relative to the base and a link having a first end fixed to the handle and a second end remote from the base, the link extending substantially through a length of the tube; and a loop formed by a piece of wire and attached to the link, and the loop being movable between an open position and a closed position by action of the handle relative to the base; wherein the shape of the loop is defined in the open position by a proximal portion, a distal portion, and a transitional portion separating the proximal portion and the distal portion, wherein the piece of wire is twisted along an elongate axis of the wire by at least 45 degrees in the transitional portion on at least one side of the loop, characterised in that the piece of wire has a cross-sectional height in the proximal portion unequal to a cross-sectional height in the distal portion. a support assembly having a base and an elongated hollow tube; a transmitting assembly having a handle movable relative to the base and a link having a first end fixed to the handle and a second end remote from the base, the link extending substantially through a length of the tube; and a loop formed by a piece of wire and attached to the link, and the loop being movable between an open position and a closed position by action of the handle relative to the base; wherein the shape of the loop is defined in the open position by a proximal portion, a distal portion, and a transitional portion separating the proximal portion and the distal portion, wherein the piece of wire is twisted along an elongate axis of the wire by at least 45 degrees in the transitional portion on at least one side of the loop, characterised in that the piece of wire has a cross-sectional height in the proximal portion unequal to a cross-sectional height in the distal portion.
A first network node configured for use in a telecommunications network for wirelessly establishing a connection with a terminal located at a location in said network by a server, the terminal being identified by a terminal identifier in the telecommunications network, wherein the telecommunications network contains the first network node and a second network node, and wherein the first network node is configured for receiving a data unit for the terminal from the server, the data unit comprising the terminal identifier, the first network node is configured for receiving a location identifier indicative of the location of the terminal in the telecommunications network and for deriving an address of the second network node using the location identifier and transmitting a first connection request to the derived second network node for establishing a connection to the terminal, characterized in that the first network node is configured for receiving the location identifier from the server.
A three-place berthing aircraft divan, comprising: a fixed frame comprising a seat bottom frame and a backrest frame; first, second and third inboard legs (110, 112, 114) affixed to the seat bottom frame; a seat bottom comprising a tracking platform supported by the seat bottom frame and movable relative thereto to track between an upright sitting position and a berth position; a backrest comprising a back follower supported by the backrest frame and movable relative thereto, the back follower and the tracking platform linked such that the back follower and the tracking platform track together between the upright sitting position and the berth position; a passenger restraint provided at each seat place (102, 104, 106); and an automatic leg flail prevention device disposed at one end of the seat bottom frame; wherein each passenger restraint comprises a lap belt anchored to the tracking platform and an inflatable shoulder harness detachable from the lap belt, wherein one end of the inflatable shoulder harness is wound on a retractor disposed under the seat bottom frame, and wherein a portion of the inflatable shoulder harness is routed outboard of the backrest frame and stows outside of the retractor such that the retractor provides unceasing tension on the inflatable shoulder harness. a fixed frame comprising a seat bottom frame and a backrest frame; first, second and third inboard legs (110, 112, 114) affixed to the seat bottom frame; a seat bottom comprising a tracking platform supported by the seat bottom frame and movable relative thereto to track between an upright sitting position and a berth position; a backrest comprising a back follower supported by the backrest frame and movable relative thereto, the back follower and the tracking platform linked such that the back follower and the tracking platform track together between the upright sitting position and the berth position; a passenger restraint provided at each seat place (102, 104, 106); and an automatic leg flail prevention device disposed at one end of the seat bottom frame; wherein each passenger restraint comprises a lap belt anchored to the tracking platform and an inflatable shoulder harness detachable from the lap belt, wherein one end of the inflatable shoulder harness is wound on a retractor disposed under the seat bottom frame, and wherein a portion of the inflatable shoulder harness is routed outboard of the backrest frame and stows outside of the retractor such that the retractor provides unceasing tension on the inflatable shoulder harness.
A method by an Internet of Things, IoT, electronic device for executing services distributed by an IoT service orchestration device to a plurality of IoT electronic devices, the method comprising: receiving a Lightweight Machine-to-Machine, LwM2M, request message through the Internet from the IoT service orchestration device, wherein the LwM2M request message contains a LwM2M object identifying a group of hardware resources of the IoT electronic device for which characteristics are requested and wherein the identified hardware resources are at least one of RAM size, ROM size, CPU speed, and GPU speed; executing a LwM2M command that accesses a LwM2M interface identified based on content of the LwM2M object to determine the characteristics of the group of hardware resources of the IoT electronic device which are identified by the LwM2M object; generating a response message containing information identifying the characteristics of the group of hardware resources of the IoT electronic device which are determined through the LwM2M interface access; communicating the response message through the Internet directed toward the IoT service orchestrator device; and receiving a service image which has been adapted by the IoT service orchestrator device, responsive to the information in the response message identifying the characteristics of the group of hardware resources of the IoT electronic device, for execution by the IoT electronic device. receiving a Lightweight Machine-to-Machine, LwM2M, request message through the Internet from the IoT service orchestration device, wherein the LwM2M request message contains a LwM2M object identifying a group of hardware resources of the IoT electronic device for which characteristics are requested and wherein the identified hardware resources are at least one of RAM size, ROM size, CPU speed, and GPU speed; executing a LwM2M command that accesses a LwM2M interface identified based on content of the LwM2M object to determine the characteristics of the group of hardware resources of the IoT electronic device which are identified by the LwM2M object; generating a response message containing information identifying the characteristics of the group of hardware resources of the IoT electronic device which are determined through the LwM2M interface access; communicating the response message through the Internet directed toward the IoT service orchestrator device; and receiving a service image which has been adapted by the IoT service orchestrator device, responsive to the information in the response message identifying the characteristics of the group of hardware resources of the IoT electronic device, for execution by the IoT electronic device.
A cleaning composition comprising: (a) a variant of a parent alpha-amylase, preferably an isolated variant, comprising an alteration at a position corresponding to position G477 of the mature polypeptide of SEQ ID NO: 1, wherein the alteration is a substitution and the substituent is selected from the group consisting of E, Q, K, M, and R; further comprising one or more substitutions selected from the group consisting of G304RKEQ, W140YF, W189EGT, D134E, E260ADCQLMFPSWVGHIKNRTY, F262GP, W284DHFYR, W347HFY, W439RG and G476EQRK at position(s) corresponding to positions G304, W140, W189, D134, E260, F262, W284, W347, W439 and G476 of the mature polypeptide of SEQ ID NO: 1; and further comprising two or more substitutions selected from the group consisting of N195F, V206Y and Y243F at positions corresponding to positions N195, V206, and Y243 of SEQ ID NO: 1; wherein the variant has at least 87%, but less than 100% sequence identity with the mature polypeptide of SEQ ID NO: 1, and wherein the variant has alpha-amylase activity and improved wash performance at a temperature of 5-35 °C as compared to the alpha-amylase of SEQ ID NO: 1 or to the alpha-amylase of SEQ ID NO: 7; and (b) a cleaning adjunct, preferably in an amount from 0.01 to 99.9 wt%. (a) a variant of a parent alpha-amylase, preferably an isolated variant, comprising an alteration at a position corresponding to position G477 of the mature polypeptide of SEQ ID NO: 1, wherein the alteration is a substitution and the substituent is selected from the group consisting of E, Q, K, M, and R; further comprising one or more substitutions selected from the group consisting of G304RKEQ, W140YF, W189EGT, D134E, E260ADCQLMFPSWVGHIKNRTY, F262GP, W284DHFYR, W347HFY, W439RG and G476EQRK at position(s) corresponding to positions G304, W140, W189, D134, E260, F262, W284, W347, W439 and G476 of the mature polypeptide of SEQ ID NO: 1; and further comprising two or more substitutions selected from the group consisting of N195F, V206Y and Y243F at positions corresponding to positions N195, V206, and Y243 of SEQ ID NO: 1; wherein the variant has at least 87%, but less than 100% sequence identity with the mature polypeptide of SEQ ID NO: 1, and wherein the variant has alpha-amylase activity and improved wash performance at a temperature of 5-35 °C as compared to the alpha-amylase of SEQ ID NO: 1 or to the alpha-amylase of SEQ ID NO: 7; and (b) a cleaning adjunct, preferably in an amount from 0.01 to 99.9 wt%.
Method of compensating a failing nozzle of a print head of an inkjet printer, the inkjet printer comprising at least one print head, the at least one print head comprising a plurality of nozzles erein a receiving material is moved relatively to the at least one print head, wherein the method comprises the steps of a) ejecting droplets of marking material from the plurality of nozzles onto the receiving material forming dots of an image, b) scanning the printed dots, c) analyzing the scanned dots for detecting whether a nozzle is failing, d) determining a group of nozzles which group most likely contains the nozzle that is failing, e) selecting (S51, S53) one nozzle of the group of nozzles, f) in an image part ejecting compensating droplets of marking material in accordance with a compensation scheme selected as if said one nozzle is failing, g) scanning the image part, h) repeating steps f) and g) for each other nozzle in the group of nozzles, i) analyzing each image part, j) selecting from the image parts a deviating image part with respect to print quality, the deviating part having a highest or lowest print quality of all image parts, k) selecting a compensation scheme based on the deviating image part, and l) proceeding with printing, including ejecting compensating droplets in accordance with the selected compensation scheme, wherein each image part has such a size in the direction of the movement of the receiving material, e.g. a size of six pixels, that variations in the printed dots on the image parts are not or slightly visible to an observer but are detectable while scanning the image parts, and characterized in that the method comprises the step of printing the image parts before any of the image parts is scanned. a) ejecting droplets of marking material from the plurality of nozzles onto the receiving material forming dots of an image, b) scanning the printed dots, c) analyzing the scanned dots for detecting whether a nozzle is failing, d) determining a group of nozzles which group most likely contains the nozzle that is failing, e) selecting (S51, S53) one nozzle of the group of nozzles, f) in an image part ejecting compensating droplets of marking material in accordance with a compensation scheme selected as if said one nozzle is failing, g) scanning the image part, h) repeating steps f) and g) for each other nozzle in the group of nozzles, i) analyzing each image part, j) selecting from the image parts a deviating image part with respect to print quality, the deviating part having a highest or lowest print quality of all image parts, k) selecting a compensation scheme based on the deviating image part, and l) proceeding with printing, including ejecting compensating droplets in accordance with the selected compensation scheme,
A method for a communication device of off-loading one or more location services, the communication device including a wireless communication chipset (614, 700) and one or more primary processors configured to execute an operating system (604, 606), the method comprising: receiving, in the wireless communication chipset of the communication device, a virtual boundary condition to off-load the one or more location services from the operating system, the virtual boundary condition specifying at least one threshold distance between the communication device and one or more wireless communication devices; transitioning the one or more primary processors to a low power mode from a higher power mode, responsive to the receiving operation; measuring, in the wireless communication chipset of the communication device, one or more distances between the communication device and the one or more wireless communication devices using a wireless communication distance measuring protocol; determining, in the wireless communication chipset of the communication device, that the virtual boundary condition has been satisfied by the one or more measured distances; notifying the operating system that the virtual boundary condition has been satisfied by the one or more measured distances; and transitioning the one or more primary processors from the low power mode to the higher power mode, responsive to the notifying operation. receiving, in the wireless communication chipset of the communication device, a virtual boundary condition to off-load the one or more location services from the operating system, the virtual boundary condition specifying at least one threshold distance between the communication device and one or more wireless communication devices; transitioning the one or more primary processors to a low power mode from a higher power mode, responsive to the receiving operation; measuring, in the wireless communication chipset of the communication device, one or more distances between the communication device and the one or more wireless communication devices using a wireless communication distance measuring protocol; determining, in the wireless communication chipset of the communication device, that the virtual boundary condition has been satisfied by the one or more measured distances; notifying the operating system that the virtual boundary condition has been satisfied by the one or more measured distances; and transitioning the one or more primary processors from the low power mode to the higher power mode, responsive to the notifying operation.
A system for the determination and visualization of force flows in a bar-type supporting structure which is preferably designed in the form of a scaffold, comprising a plurality of vertically extending ladder or support elements (5a-5c), which are set up at a distance from one another and/or which are detachably connected via scaffold couplings to strut elements (6a-6d) extending transversely in the diagonal and/or horizontal direction to said ladder or support elements, wherein at least one load-critical part of the support elements (5a-5c) and/or strut elements (6a-6d) and/or scaffold couplings of the bar-type supporting structure is equipped with load sensors (8a-8c) for capturing static operating load values, the measured values of which are analyzed in real time by a downstream analysis unit for evaluating current load situations, characterized in that the analysis unit is connected to a memory unit for storing learning data for supporting future planning of sensor arrangements in the same or similar bar-type supporting structures, wherein a planning unit which accesses the memory unit for planning the arrangement of load sensors (8a-8c) in a bar-type supporting structure is provided, which processes dimensioning data of the static planning.