mhurhangee/patent-ind-claim-en huggingface dataset:
Wire netting , in particular safety net, with a plurality of helices which are braided with one another and at least one of which is manufactured of at least one single wire, a wire bundle, a wire strand, a wire rope and/or any other longitudinal element with at least one wire , made of a high-tensile steel, and comprises a plurality of legs , a plurality of bending regions respectively connecting two legs , and has a transverse extension along a frontal direction , perpendicularly to a main extension plane of the helix , wherein at least one leg (20a, 22a; 20b, 22b; 20c, 22c) of the helix (12a; 12b; 12c) follows a straight contour, characterised in that, in a transverse view parallel to a main extension plane of the helix (12a; 12b; 12c) and perpendicularly to a longitudinal direction (28a; 28b; 28c) of the helix (12a; 12b; 12c), in at least one section comprising at least 50 % of the bending region (24a; 24b; 24c) the bending region (24a; 24b; 24c) follows an at least approximately straight contour, wherein in a press test between parallel plates , comprising a pressing by moving the plates along a press path in parallel to the frontal direction , a test piece of the helix , taken from the helix and comprising at least five legs and at least four bending regions, shows a spring characteristic curve (56a; 56f; 56g; 56h; 56i; 56j) which has in a press path-force diagram (58a; 58f; 58g; 58h; 58i; 58j), starting from a start of the press path , a first partial characteristic curve (60a; 60f; 60g; 60h; 60i; 60j) extending linearly and having an at least substantially constant first gradient, and wherein the first partial characteristic curve extends over a press path value range that is equivalent to at least a quarter of the transverse extension of the helix .
A method comprising: initiating a wireless charging and sending a charging notification to an end user; sending a battery full message for notifying the end user when the wireless charging is complete and terminating the wireless charging; setting the wireless charging device to a standby mode and monitoring a ping signal from a wireless charger transmitter to detect whether the wireless charging device is removed from the wireless charging transmitter; initiating maintenance charging without sending the charging notification to the end user when the battery is below a recharging threshold and the wireless charging device has not been removed from the wireless charging transmitter; and continuing the maintenance charging of the wireless charging device without sending the charging notification until the battery is full or the wireless charging device is removed from the wireless charger transmitter. initiating a wireless charging and sending a charging notification to an end user; sending a battery full message for notifying the end user when the wireless charging is complete and terminating the wireless charging; setting the wireless charging device to a standby mode and monitoring a ping signal from a wireless charger transmitter to detect whether the wireless charging device is removed from the wireless charging transmitter; initiating maintenance charging without sending the charging notification to the end user when the battery is below a recharging threshold and the wireless charging device has not been removed from the wireless charging transmitter; and continuing the maintenance charging of the wireless charging device without sending the charging notification until the battery is full or the wireless charging device is removed from the wireless charger transmitter.
A method for handover between public land mobile network PLMN identifications, comprising: controlling, by a base station supporting different PLMNs according to a first PLMN identification list, user equipment to be handed over between PLMN identifications, wherein the handover between the PLMN identifications comprises network handover and network redirection; receiving, by the base station , a second PLMN identification list sent by a mobility management entity MME, wherein the second PLMN identification list is used for indicating a handover allowed PLMN identification corresponding to the user equipment that the base station currently serves; and the method being characterized by further comprising: acquiring, by the base station , the first PLMN identification list, wherein the first PLMN identification list is configured by the base station and is used for indicating a handover allowed PLMN identification corresponding to each first identification currently supported by the base station , and the first identification comprises one or more of a base station identification, an operator identifier, and a cell identifier. controlling, by a base station supporting different PLMNs according to a first PLMN identification list, user equipment to be handed over between PLMN identifications, wherein the handover between the PLMN identifications comprises network handover and network redirection; receiving, by the base station , a second PLMN identification list sent by a mobility management entity MME, wherein the second PLMN identification list is used for indicating a handover allowed PLMN identification corresponding to the user equipment that the base station currently serves; and
A device for trenchless forming of concrete partitions in the ground, equipped with a forming arm comprising modular working segments , where each segment has a supply channel for feeding concrete mortar through a supply manifold and outlet openings in the segments rear wall to a space hollowed in the ground, which arm is moved in the ground using tension ropes arranged in parallel in the ground in casing tubes and ends of the arm are connected with guides and a feed drive powering in line with the direction of action of the tension ropes , characterized in that the forming arm is U-shaped, and the forming arm consists of at least two lateral working segments connected to a lower working segment through underground lateral and lower driving segments , and wherein each driving segment has a holder of tension rope, a rotating cutting head for milling the casing tube , a powering assembly of the cutting head and a rinser channel , wherein each segment of the forming arm has a return duct for extracting the spoil, located between the rinser channel and the supply channel , and in the working segments the return duct is connected via a collector receiving spoil with inlet openings located at the head portion of the segment, and the head portion of the working segments is provided with movable longitudinal excavating elements and rinser nozzles , and further an electrical connector is installed in lateral walls of each segment.
An optical signal receiver comprising: an optical resonator configured to receive an arriving optical signal and to emit an output optical signal in response to receiving the arriving optical signal , the optical resonator being further configured to transform phase transitions corresponding to phase modulation of the arriving optical signal into intensity modulation of the output optical signal ; an opto-electrical converter configured to convert the output optical signal into an electrical signal ; a pulse detector configured to detect pulses in the electrical signal indicative of the phase transitions in the arriving optical signal ; and characterized by : a memory configured to record timing information associated with the pulses detected by the pulse detector . an optical resonator configured to receive an arriving optical signal and to emit an output optical signal in response to receiving the arriving optical signal , the optical resonator being further configured to transform phase transitions corresponding to phase modulation of the arriving optical signal into intensity modulation of the output optical signal ; an opto-electrical converter configured to convert the output optical signal into an electrical signal ; a pulse detector configured to detect pulses in the electrical signal indicative of the phase transitions in the arriving optical signal ; and characterized by : a memory configured to record timing information associated with the pulses detected by the pulse detector .
An active filter system comprising a plurality of active filter devices that each have an output connected to a harmonic-generating load device and are capable of generating a compensating current for performing at least one of reduction of a harmonic current of the harmonic-generating load device and improvement of a power factor of a fundamental wave, wherein the plurality of active filter devices provide two or more types of capacities, and the number and a combination of operating active filter devices among the active filter devices change in accordance with a magnitude of the compensating current, characterized in that the number and the combination of the operating active filter devices among the active filter devices changes so as to maximize a ratio of the compensating current relative to a total capacity of the operating active filter devices among the active filter devices . a plurality of active filter devices that each have an output connected to a harmonic-generating load device and are capable of generating a compensating current for performing at least one of reduction of a harmonic current of the harmonic-generating load device and improvement of a power factor of a fundamental wave, wherein the plurality of active filter devices provide two or more types of capacities, and the number and a combination of operating active filter devices among the active filter devices change in accordance with a magnitude of the compensating current, characterized in that the number and the combination of the operating active filter devices among the active filter devices changes so as to maximize a ratio of the compensating current relative to a total capacity of the operating active filter devices among the active filter devices .
A modular transfer unit comprising: a frame having a first end and a second end; a main belt supported by the frame , the main belt comprising a plurality of hingedly-connected belt modules, each of the plurality of belt modules comprising a body and a plurality of spherical balls , the spherical balls having an upper portion that protrudes above an upper surface of the body and a lower portion that protrudes below a lower surface of the body, the spherical balls configured to rotate relative to the body; a main belt drive unit configured to drive the main belt in a first direction, the main belt drive unit comprising a motor and a drive roller, the drive roller engaged with the main belt at the first end of the frame; and a diverter belt supported by the frame , the diverter belt configured to travel in a second direction that is generally perpendicular to the first direction, the diverter belt positioned at least partially underneath the main belt such that the diverter belt contacts the protruding lower portion of the spherical balls and the relative movement of the main and diverter belts causes the spherical balls to rotate; wherein the diverter belt is configured to be repositioned between the first end and a second end of the frame along a track system while remaining supported by the frame . a frame having a first end and a second end; a main belt supported by the frame , the main belt comprising a plurality of hingedly-connected belt modules, each of the plurality of belt modules comprising a body and a plurality of spherical balls , the spherical balls having an upper portion that protrudes above an upper surface of the body and a lower portion that protrudes below a lower surface of the body, the spherical balls configured to rotate relative to the body; a main belt drive unit configured to drive the main belt in a first direction, the main belt drive unit comprising a motor and a drive roller, the drive roller engaged with the main belt at the first end of the frame; and a diverter belt supported by the frame , the diverter belt configured to travel in a second direction that is generally perpendicular to the first direction, the diverter belt positioned at least partially underneath the main belt such that the diverter belt contacts the protruding lower portion of the spherical balls and the relative movement of the main and diverter belts causes the spherical balls to rotate; wherein the diverter belt is configured to be repositioned between the first end and a second end of the frame along a track system while remaining supported by the frame .
A method for a User Equipment, UE, operating in a wireless communication system, the method comprising: receiving (S1401) information for configuring a Contention Based, CB, grant for transmitting uplink data from the eNodeB, eNB; receiving the uplink data from an upper layer; initiating (S1403) a Random Access, RA, procedure and preparing (S1405) transmission of the uplink data using the CB grant at a same time; transmitting (S1407) the uplink data using the CB grant while the RA procedure is ongoing; monitoring an Acknowledgement, ACK, indication from the eNB in response to the transmission of the uplink data; determining successful completion of the initiated RA procedure based on the UE receiving the ACK indication from the eNB while the RA procedure is ongoing and there being no other pending data available for transmission; canceling (S1411) the ongoing RA procedure according to the determination of the successful completion of the initiated RA procedure; and maintaining (S1413) the ongoing RA procedure based on the UE receiving the ACK indication from the eNB while the RA procedure is ongoing and there being pending data available for transmission. receiving (S1401) information for configuring a Contention Based, CB, grant for transmitting uplink data from the eNodeB, eNB; receiving the uplink data from an upper layer; initiating (S1403) a Random Access, RA, procedure and preparing (S1405) transmission of the uplink data using the CB grant at a same time; transmitting (S1407) the uplink data using the CB grant while the RA procedure is ongoing; monitoring an Acknowledgement, ACK, indication from the eNB in response to the transmission of the uplink data; determining successful completion of the initiated RA procedure based on the UE receiving the ACK indication from the eNB while the RA procedure is ongoing and there being no other pending data available for transmission; canceling (S1411) the ongoing RA procedure according to the determination of the successful completion of the initiated RA procedure; and maintaining (S1413) the ongoing RA procedure based on the UE receiving the ACK indication from the eNB while the RA procedure is ongoing and there being pending data available for transmission.
A memory cell for storing one or more bits of information, the memory cell comprising a semiconductor substrate on which is provided a source terminal , a drain terminal and a channel extending between the source and drain terminals , the memory cell further comprising a control gate and a floating gate , the floating gate being disposed between the control gate and the channel , and the floating gate being electrically isolated from the control gate and the channel by charge barriers and being configured to enable the selective passage of charge carriers into and out of the floating gate , in write and erase operations, to provide at least first and second occupancy states of the floating gate , the channel being arranged to provide a minimum threshold voltage to be applied between the control gate and the substrate in a read operation for introducing charge carriers into the channel from the substrate to make the channel conductive, the minimum threshold voltage being dependent on the occupancy state of the floating gate , such that a read voltage may be applied between the control gate and the substrate that will provide a conductive channel for a first occupancy state of the floating gate and a non- conductive channel for a second occupancy state of the floating gate , wherein the interface between the channel and the semiconductor substrate is a type-III heterojunction wherein the channel comprises a quantum dot, a quantum well, or a quantum wire, the quantum dot, quantum well, or quantum wire having discrete confined energy levels for accommodating charge carriers in the channel , and wherein a lowest confined energy level of the quantum well, quantum dot, or quantum wire in the absence of an electric field applied across the memory cell is at a higher energy than the valence band of the semiconductor substrate. wherein the interface between the channel and the semiconductor substrate is a type-III heterojunction wherein the channel comprises a quantum dot, a quantum well, or a quantum wire, the quantum dot, quantum well, or quantum wire having discrete confined energy levels for accommodating charge carriers in the channel , and wherein a lowest confined energy level of the quantum well, quantum dot, or quantum wire in the absence of an electric field applied across the memory cell is at a higher energy than the valence band of the semiconductor substrate.
Device for processing products in the form of planar workpieces, having a computing apparatus and an interface , wherein the interface is configured to communicate with a plurality of spatially spaced apart and/or interlinked manufacturing cells (106-1, ..., 106-4), wherein the manufacturing cells (106-1, ..., 106-4) are configured to process a product in a predeterminable manufacturing sequence, wherein the interface is configured to receive information about at least one manufacturing parameter from at least one of the plurality of manufacturing cells (106-1, ..., 106-4), wherein the computing apparatus is configured, depending on the at least one manufacturing parameter, to determine a manufacturing instruction for at least one of the plurality of manufacturing cells (106-1, ..., 106-4) in accordance with a predefined optimization variable, characterized in that the optimization variable comprises a maximization of average distances between operator interactions, wherein the manufacturing sequence is optimized with regard to necessary attendance times of operators at the manufacturing cells (106-1, ..., 106-4) and wherein the manufacturing instruction specifies the manufacturing sequence and the interface is configured to transmit information about the at least one manufacturing instruction for specifying the manufacturing sequence to the manufacturing cells (106-1, ..., 106-4) and the manufacturing cells (106-1, ..., 106-4) are configured to implement the manufacturing instruction upon receipt, and in that the products are planar workpieces.
Control valve for a fuel injector in a fuel injection system, in particular in a common rail injection system, comprising a valve closing element which is capable of stroke movement for releasing and closing an outflow duct that is configured in a valve piece , wherein the valve closing element interacts with a valve seat that delimits the outflow duct , furthermore comprising a pin for guiding the valve closing element , wherein the pin while configuring a guiding gap is received in a bore that at least in portions penetrates the valve closing element , characterized in that the pin has a cone-shaped portion which has an external diameter which is reduced in relation to the guiding diameter of the pin and by way of which the pin plunges into the outflow duct , wherein the pin has an external contour which interacts with an internal contour of the valve piece that delimits the outflow duct , or with an internal contour of the valve closing element that delimits the bore , so as to configure a throttle point that lies outside the guiding gap .
A clamping device , in particular a clamping jaw, for supporting preferably rotationally symmetrical workpieces which are to be machined using a machine tool, consisting of: - a chuck body on which at least one pressure piece is mounted in a moveable arrangement, - an electric motor which is connected in a driving arrangement with the corresponding pressure piece either directly or via intermediate elements , individually or within a driveline, and which is arranged inside the chuck body, in which the electric motor in question is electrically coupled to a source of current via a plug-and-socket connection and electrical cables when the clamping device is stationary, or when the clamping device is rotating and/or at a standstill, the electric motor is coupled to the source of current via an inductance device in each case, the chuck body containing at least one energy storage device which is electrically connected to the electric motor in question, and with the corresponding energy storage device being electrically coupled to the inductance device , characterised in that , the energy storage device is arranged flush with the longitudinal axis of the chuck body. - a chuck body on which at least one pressure piece is mounted in a moveable arrangement, - an electric motor which is connected in a driving arrangement with the corresponding pressure piece either directly or via intermediate elements , individually or within a driveline, and which is arranged inside the chuck body,
A memory module operable in a computer system , the computer system including a memory controller coupled to a system memory bus, the system memory bus including a data bus and a control/address bus, comprising: a printed circuit board ; a volatile memory subsystem mounted on the printed circuit board and coupled to the system memory bus, the volatile memory subsystem including double data rate dynamic random access memory (DRAM R0; DRAM Rl); a non-volatile memory subsystem mounted on the printed circuit board ; buffer memory ; and a module control device mounted on the printed circuit board and coupled to the volatile memory subsystem , the non-volatile memory subsystem , the buffer memory and the system memory bus, wherein the module control device is configured to transfer first data from the non-volatile memory subsystem to the buffer memory in response to a non-volatile access request received via the system memory bus, wherein the module control device is further configured to respond to a dummy write memory command received via the control/access bus by causing at least a portion of the first data to be output from the buffer memory , and wherein the volatile memory subsystem is configured to receive the dummy write memory command from the control/address bus and to receive the at least a portion of the first data in response to the dummy write memory command. a printed circuit board ; a volatile memory subsystem mounted on the printed circuit board and coupled to the system memory bus, the volatile memory subsystem including double data rate dynamic random access memory (DRAM R0; DRAM Rl); a non-volatile memory subsystem mounted on the printed circuit board ; buffer memory ; and a module control device mounted on the printed circuit board and coupled to the volatile memory subsystem , the non-volatile memory subsystem , the buffer memory and the system memory bus, wherein the module control device is configured to transfer first data from the non-volatile memory subsystem to the buffer memory in response to a non-volatile access request received via the system memory bus, wherein the module control device is further configured to respond to a dummy write memory command received via the control/access bus by causing at least a portion of the first data to be output from the buffer memory , and wherein the volatile memory subsystem is configured to receive the dummy write memory command from the control/address bus and to receive the at least a portion of the first data in response to the dummy write memory command.