mhurhangee/ep-ind-claims huggingface dataset:
A system comprising: patching equipment comprising: one or more ports to which cables can be connected; at least one sensor associated with at least one of the ports to detect when a cable is connected to said at least one port; and a controller communicatively coupled to the patching equipment; wherein the controller is configured to do the following: detect that a cable has been connected to said at least one port of the patching equipment; detect that the cable is no longer connected to said at least one port of the patching equipment; wherein the controller is characterized in that in response to detecting that the cable is no longer connected to said at least one port of the patching equipment: download, from a cable tester, information associated with fixed cabling coupled to said at least one port of the patching equipment; associate the downloaded information with said at least one port of the patching equipment; and locally store the downloaded information and association information at the controller. one or more ports to which cables can be connected; at least one sensor associated with at least one of the ports to detect when a cable is connected to said at least one port; and a controller communicatively coupled to the patching equipment; wherein the controller is configured to do the following: detect that a cable has been connected to said at least one port of the patching equipment; detect that the cable is no longer connected to said at least one port of the patching equipment; wherein the controller is characterized in that in response to detecting that the cable is no longer connected to said at least one port of the patching equipment: download, from a cable tester, information associated with fixed cabling coupled to said at least one port of the patching equipment; associate the downloaded information with said at least one port of the patching equipment; and locally store the downloaded information and association information at the controller. detect that a cable has been connected to said at least one port of the patching equipment; detect that the cable is no longer connected to said at least one port of the patching equipment; wherein the controller is characterized in that in response to detecting that the cable is no longer connected to said at least one port of the patching equipment: download, from a cable tester, information associated with fixed cabling coupled to said at least one port of the patching equipment; associate the downloaded information with said at least one port of the patching equipment; and locally store the downloaded information and association information at the controller. download, from a cable tester, information associated with fixed cabling coupled to said at least one port of the patching equipment; associate the downloaded information with said at least one port of the patching equipment; and locally store the downloaded information and association information at the controller.
Method for heating an operating agent for a rail vehicle, particularly for heating a reducing agent for aftertreatment of exhaust gas, wherein in one operating mode of an operating agent heating system, a coolant liquid is pumped by a pump through a coolant circuit of the internal combustion engine, wherein further in operating mode, the coolant liquid can be pumped by this pump through a main heating circuit for heating the operating agent in a reservoir, and in a preheating mode of the operating agent heating system the main heating circuit is divided into two sub-circuits (32.1, 32.2) of a preheating circuit (32; 32.1, 32.2) though which liquid can flow, wherein the coolant liquid heated by a preheating device in the two sub-circuits (32.1, 32.2) is pumped by a pump in a preheating line or a pump of the preheating device through the two sub-circuits (32.1, 32.2), characterised in that in a thawing mode of the operating agent heating system, the coolant liquid heated by the preheating device is pumped by the pump in the preheating line or the pump of the preheating device through only that sub-circuit (32.2) of the preheating circuit (32; 32.1, 32.2) which leads through the reservoir.
A method comprising: receiving symbols corresponding to a composite channel during a first allotted transmission time interval, TTI, wherein there is redundancy in the received symbols, the composite channel comprising at least two multiplexed transport channels with encoded symbols from the at least two multiplexed transport channels grouped in slots, wherein each transport channel including information relating to bits of one of adaptive multi-rate, AMR, class A, B or C; attempting (540.1) to decode at least one transport channel of the at least two multiplexed transport channels prior to receiving all symbols of the first TTI, the attempting to decode comprising: identifying bits corresponding to a cyclic redundancy check, CRC, specified in data carried by the at least one transport channel upon detecting that the at least one transport channel includes information relating to bits of at least one of AMR class A or B, and identifying bits corresponding to a tail-biting convolutional code upon detecting that the at least one transport channel includes information relating to bits of AMR class C; and transmitting (560.1) an acknowledgement message, ACK, based on a successful decode of said bits, wherein the ACK is operable to cease transmission of the remaining symbols during the first TTI. receiving symbols corresponding to a composite channel during a first allotted transmission time interval, TTI, wherein there is redundancy in the received symbols, the composite channel comprising at least two multiplexed transport channels with encoded symbols from the at least two multiplexed transport channels grouped in slots, wherein each transport channel including information relating to bits of one of adaptive multi-rate, AMR, class A, B or C; attempting (540.1) to decode at least one transport channel of the at least two multiplexed transport channels prior to receiving all symbols of the first TTI, the attempting to decode comprising: identifying bits corresponding to a cyclic redundancy check, CRC, specified in data carried by the at least one transport channel upon detecting that the at least one transport channel includes information relating to bits of at least one of AMR class A or B, and identifying bits corresponding to a tail-biting convolutional code upon detecting that the at least one transport channel includes information relating to bits of AMR class C; and transmitting (560.1) an acknowledgement message, ACK, based on a successful decode of said bits, wherein the ACK is operable to cease transmission of the remaining symbols during the first TTI.
An adhesive fastener part with a flat backing part composed of warp and weft threads and with fastener elements which project from the backing part and are formed by pile threads that are anchored on the backing part, characterised in that in order to freely adapt the reflectance behaviour of the adhesive fastener part to the corresponding reflectance behaviour of a functional structure that supports the adhesive fastener part, in particular of a clothing material, at least parts of the fastener part, preferably the weft threads, are made of a thread material that exhibits a pre-selected reflectivity with respect to infrared radiation.
Process for the layered construction of a shaped body by means of a 3D inkjet printing process with a piezo printhead which has an ink feed system and several nozzles connected thereto, to each of which a piezo element is allocated which can act on the associated nozzle, in order to discharge ink from it, wherein each piezo element of the piezo printhead can be actuated individually by a control unit to discharge ink and its discharge is monitored by the control unit, wherein in the process the piezo printhead is moved, controlled by the control unit, over a construction area, the piezo elements are actuated individually by the control unit for the locally selective application of filled ink, in order to thus apply a layer with a contour predetermined by the control unit, the applied layer is allowed to cure and the desired shaped body is constructed by successive application of layers, each with a predetermined contour, wherein the control unit is arranged to move the piezo printhead out of the construction area after a predetermined number of printed layers and/or if the control unit records a reduced discharge of ink in a nozzle of the piezo printhead, then subject the nozzle or nozzles with reduced discharge or all the nozzles of the piezo printhead to a nozzle cleaning, characterized in that the control unit is arranged to perform the nozzle cleaning by stimulating the piezo element or elements of the nozzles to be cleaned with a frequency of at least 20 kHz to generate ultrasound waves, in order to comminute and release any deposits in the nozzle.
Drive unit for a motor vehicle having - a combustion engine which comprises an internal combustion engine and an exhaust gas section, via which exhaust gas can be discharged from the internal combustion engine, - a cycle apparatus which can be used for converting thermal energy which is contained in the exhaust gas into mechanical work in a clockwise thermodynamic cycle, the cycle - comprising a thermal transfer from the exhaust gas to an operating medium in a first heat exchanging apparatus, as a result of which the temperature and/or the pressure of the operating medium are/is increased, - comprising an expansion of the operating medium in an expansion apparatus for producing the mechanical work, and - comprising a thermal transfer from the operating medium to a coolant in a second heat exchanging apparatus, - a heat accumulator which is provided for receiving thermal energy of the exhaust gas and for outputting the thermal energy as required, characterized in that, in the cycle apparatus, the heat accumulator is integrated into the first heat exchanging apparatus or upstream of the first heat exchanging apparatus and downstream of the second heat exchanging apparatus, and in that an apparatus for predicting a journey profile to be driven in future is provided, an output of heat from the heat accumulator to the operating medium for assisting the cycle being controlled in a manner which is dependent on the predicted journey profile. - a combustion engine which comprises an internal combustion engine and an exhaust gas section, via which exhaust gas can be discharged from the internal combustion engine, - a cycle apparatus which can be used for converting thermal energy which is contained in the exhaust gas into mechanical work in a clockwise thermodynamic cycle, the cycle - comprising a thermal transfer from the exhaust gas to an operating medium in a first heat exchanging apparatus, as a result of which the temperature and/or the pressure of the operating medium are/is increased, - comprising an expansion of the operating medium in an expansion apparatus for producing the mechanical work, and - comprising a thermal transfer from the operating medium to a coolant in a second heat exchanging apparatus, - comprising a thermal transfer from the exhaust gas to an operating medium in a first heat exchanging apparatus, as a result of which the temperature and/or the pressure of the operating medium are/is increased, - comprising an expansion of the operating medium in an expansion apparatus for producing the mechanical work, and - comprising a thermal transfer from the operating medium to a coolant in a second heat exchanging apparatus, - a heat accumulator which is provided for receiving thermal energy of the exhaust gas and for outputting the thermal energy as required,
An alarm sounder comprising: a housing; a class-D amplifier coupled to a piezo-electric transducer, wherein the class-D amplifier and the piezo-electric transducer are carried in the housing; and control circuits coupled to the class-D amplifier wherein the control circuits are configured to couple a monitoring waveform to the class-D amplifier at an initial high frequency with a low frequency signal envelope, wherein the initial high frequency is substantially inaudible to human hearing, wherein the control circuits are configured to subsequently apply a plurality of descending frequencies to the class-D amplifier while measuring a current for the piezo-electric transducer at each of the plurality of descending frequencies, and wherein at least one of the plurality of descending frequencies is a frequency in a human hearing frequency range. a housing; a class-D amplifier coupled to a piezo-electric transducer, wherein the class-D amplifier and the piezo-electric transducer are carried in the housing; and control circuits coupled to the class-D amplifier wherein the control circuits are configured to couple a monitoring waveform to the class-D amplifier at an initial high frequency with a low frequency signal envelope, wherein the initial high frequency is substantially inaudible to human hearing, wherein the control circuits are configured to subsequently apply a plurality of descending frequencies to the class-D amplifier while measuring a current for the piezo-electric transducer at each of the plurality of descending frequencies, and wherein at least one of the plurality of descending frequencies is a frequency in a human hearing frequency range.
An intravenous catheter assembly comprising: a catheter tube; a catheter hub having a distal end and a proximal end, wherein the distal end is joined to the catheter tube and the proximal end defines a housing having inner space; a needle extending through the catheter hub and the catheter tube and defining an axial direction, wherein the needle has opposite proximal and distal ends, the distal end forming a needle tip; a port extending outwardly in a direction perpendicular to the axial direction from a sidewall of the catheter hub; a needle hub attached to the proximal end of the needle; a first valve provided in the inner space in the catheter hub to prevent foreign contamination from entering the catheter hub; a blood control second valve arranged within the inner space of catheter hub to prevent the outflow of fluid during and following removal of the needle, wherein the second valve is configured with a plug also housed in the inner space of the catheter hub wherein the plug is in fluid communication with the second valve and an inner space of the catheter hub; characterized in that an inner surface at a distal end of the second valve being provided with at least one projection or groove or vice versa matching with at least one projection or groove provided in an outer wall/surface of the plug at a proximal end thereof. a catheter tube; a catheter hub having a distal end and a proximal end, wherein the distal end is joined to the catheter tube and the proximal end defines a housing having inner space; a needle extending through the catheter hub and the catheter tube and defining an axial direction, wherein the needle has opposite proximal and distal ends, the distal end forming a needle tip; a port extending outwardly in a direction perpendicular to the axial direction from a sidewall of the catheter hub; a needle hub attached to the proximal end of the needle; a first valve provided in the inner space in the catheter hub to prevent foreign contamination from entering the catheter hub; a blood control second valve arranged within the inner space of catheter hub to prevent the outflow of fluid during and following removal of the needle, wherein the second valve is configured with a plug also housed in the inner space of the catheter hub wherein the plug is in fluid communication with the second valve and an inner space of the catheter hub; characterized in that an inner surface at a distal end of the second valve being provided with at least one projection or groove or vice versa matching with at least one projection or groove provided in an outer wall/surface of the plug at a proximal end thereof.
A method for acquiring access to an object in an object-based system in which a thread attempts to acquire access to the object, the method comprising: identifying a memory address value associated with the object; identifying a first synchronization construct that is suitable for use in granting access to the object; determining whether the first synchronization construct is available; if it is determined that the first synchronization construct is available, associating the first synchronization construct with the object; if it is determined that the first synchronization construct is unavailable, determining whether the thread that is attempting to acquire access to the object is already associated with the object; if it is determined that the thread that is attempting to acquire access to the object is already associated with the object releasing the association such that the thread is not associated with the object. identifying a memory address value associated with the object; identifying a first synchronization construct that is suitable for use in granting access to the object; determining whether the first synchronization construct is available; if it is determined that the first synchronization construct is available, associating the first synchronization construct with the object; if it is determined that the first synchronization construct is unavailable, determining whether the thread that is attempting to acquire access to the object is already associated with the object; if it is determined that the thread that is attempting to acquire access to the object is already associated with the object releasing the association such that the thread is not associated with the object.
A method for distributing Simple Network Management Protocol, SNMP, trap monitoring in a multi-core device or in a cluster of devices, the method comprising: (a) establishing, by a first core of a device comprising a plurality of cores or by a first device of a cluster comprising a plurality of devices, a threshold for a value of an entity to be monitored by the plurality of cores of the device or by the cluster via a Simple Network Management Protocol, SNMP: the method being characterized in that it further comprises: (b) monitoring, by each core of the plurality of cores or by each device of the plurality of devices, the value of the entity in comparison to a portion of the threshold, each core or each device assigned a corresponding portion of the threshold; (c) determining, by a core of the plurality of the cores or by a device of the plurality of devices, that the value of the entity as monitored by that core or that device has reached the corresponding portion of the threshold assigned to that core or that device; and (d) communicating, by the core to the first core or by the device to the first device, an indicator of an SNMP trap condition responsive to the determination. (a) establishing, by a first core of a device comprising a plurality of cores or by a first device of a cluster comprising a plurality of devices, a threshold for a value of an entity to be monitored by the plurality of cores of the device or by the cluster via a Simple Network Management Protocol, SNMP: the method being characterized in that it further comprises: (b) monitoring, by each core of the plurality of cores or by each device of the plurality of devices, the value of the entity in comparison to a portion of the threshold, each core or each device assigned a corresponding portion of the threshold; (c) determining, by a core of the plurality of the cores or by a device of the plurality of devices, that the value of the entity as monitored by that core or that device has reached the corresponding portion of the threshold assigned to that core or that device; and (d) communicating, by the core to the first core or by the device to the first device, an indicator of an SNMP trap condition responsive to the determination.
A method for producing a Receiver Optical Sub-Assembly (ROSA) device that comprises at least one antenna configured to receive optical signals, at least one rectifier configured to rectify electrical signals being electrical representation of the received optical signals and having frequencies within an optical band range and an amplifier coupled to the rectifier and configured to amplify rectified electrical signals, wherein the method comprises the steps of: (i) providing a first layer that comprises a plurality of amplifiers embedded onto a substrate; (ii) preparing a second layer that comprises a plurality of antennas and a plurality of rectifiers, each of the rectifiers is electrically connected to a respective amplifier to obtain a plurality of dies, wherein each die comprising an amplifier, a rectifier and at least one antenna coupled thereto, thereby obtaining a plurality of monolithic ROSA devices deposited on a substrate; and (iii) separating the plurality of ROSA devices deposited onto the substrate into individual monolithic ROSA devices; thereby obtaining monolithic Receiver Optical Sub-Assembly (ROSA) devices. (i) providing a first layer that comprises a plurality of amplifiers embedded onto a substrate; (ii) preparing a second layer that comprises a plurality of antennas and a plurality of rectifiers, each of the rectifiers is electrically connected to a respective amplifier to obtain a plurality of dies, wherein each die comprising an amplifier, a rectifier and at least one antenna coupled thereto, thereby obtaining a plurality of monolithic ROSA devices deposited on a substrate; and (iii) separating the plurality of ROSA devices deposited onto the substrate into individual monolithic ROSA devices;
A curable composition for forming high refractive index optical material comprising an episulfide compound; sulfur-containing organic particles comprising 60 to 80wt% of sulfur atoms; and a reducing agent, wherein the sulfur-containing organic particles comprising 60 to 80wt% of sulfur atoms comprise repeat units represented by the following Chemical Formula 1: in the Chemical Formula 1, n is an integer of 1 to 10, and m is an integer of 1 to 1000. an episulfide compound; sulfur-containing organic particles comprising 60 to 80wt% of sulfur atoms; and a reducing agent, wherein the sulfur-containing organic particles comprising 60 to 80wt% of sulfur atoms comprise repeat units represented by the following Chemical Formula 1: in the Chemical Formula 1, n is an integer of 1 to 10, and m is an integer of 1 to 1000. n is an integer of 1 to 10, and m is an integer of 1 to 1000.