mhurhangee/ep-ind-claims huggingface dataset:
A wireless communication system comprising a base station apparatus, a plurality of mobile station apparatuses that perform wireless communication with the base station apparatus, and a relay station apparatus that relays wireless communication between the base station apparatus and at least one of the plurality of mobile station apparatuses, the at least one of the plurality of mobile station apparatuses being allocated to the relay station apparatus, the wireless communication system being characterized in that the relay station apparatus comprises: a transmitting unit configured to transmit, to the at least one of the plurality of mobile station apparatuses, a synchronization signal and a reference signal; a control unit configured to switch between an idle mode and an operating mode, the idle mode being a mode in which the synchronization signal and the reference signal are not transmitted by the transmitting unit, the operating mode being a mode in which the synchronization signal and the reference signal are transmitted by the transmitting unit; and a storage unit which stores at least one first equipment identification number allocated to the relay station apparatus, wherein the control unit is configured to switch from the operating mode to the idle mode in a case that the relay station apparatus has not communicated with any mobile station apparatuses among the plurality of mobile station apparatuses, and wherein the control unit is configured to switch from the idle mode to the operating mode in a case that the relay station apparatus receives, from the base station apparatus, a paging signal, the paging signal including at least one second equipment identification number, the at least one second equipment identification number being the same as the at least one first equipment identification number stored in the storage unit. a transmitting unit configured to transmit, to the at least one of the plurality of mobile station apparatuses, a synchronization signal and a reference signal; a control unit configured to switch between an idle mode and an operating mode, the idle mode being a mode in which the synchronization signal and the reference signal are not transmitted by the transmitting unit, the operating mode being a mode in which the synchronization signal and the reference signal are transmitted by the transmitting unit; and a storage unit which stores at least one first equipment identification number allocated to the relay station apparatus, wherein the control unit is configured to switch from the operating mode to the idle mode in a case that the relay station apparatus has not communicated with any mobile station apparatuses among the plurality of mobile station apparatuses, and wherein the control unit is configured to switch from the idle mode to the operating mode in a case that the relay station apparatus receives, from the base station apparatus, a paging signal, the paging signal including at least one second equipment identification number, the at least one second equipment identification number being the same as the at least one first equipment identification number stored in the storage unit.
Method for the management of the electrical current supply in a motor vehicle having a combustion engine, wherein the charge state of a battery that can provide at least the current for the starter, ignition and lighting is detected as a discrete variable (LowSOCFlag) that indicates whether the prevailing charge state is below or above a calibrated threshold value (LowSOCThresh), wherein, if the discrete variable indicates (S1 in fig. 8) that the prevailing charge state is below the calibrated threshold value, the battery is charged using a relatively high voltage ( Setpoint1) over a predetermined time period (S7-S13 in fig. 8), wherein the relatively high voltage and the predetermined time period are a compensating charging voltage and a compensating charging time period that are required in order to charge all cells of the battery uniformly and fully, and wherein, if the discrete variable indicates that the prevailing charge state is above the calibrated threshold value, in dependence upon a prevailing energy conversion efficiency level of a drivetrain that is detected as a further discrete variable (LowEffFlag), different battery temperature-dependent voltage set points ( Setpoint0, Setpoint1,...) of an electric generator in the vehicle are set (S2-S6 in fig. 8), characterized in that, the discrete variable (LowSOCFlag) that indicates whether the prevailing charge state is below or above the calibrated threshold value (LowSOCThresh) is generated by means of an algorithm for the discrete identification of a low charge state, said algorithm identifying a low charge state by means of monitoring the battery current during a transition from a relatively high voltage set point to a relatively low voltage set point during a predetermined time period, wherein the battery current is not measured directly by means of a sensor, but is monitored indirectly with the aid of the output current or duty cycle of the electric generator, and in that the battery temperature-dependent voltage set points ( Setpoint0, Setpoint1,...) are in each case single-valued functions of the set output voltage of the electric generator on the basis of the temperature of the battery.
A surgical tool, the tool comprising: an end effector, the end effector comprising: first and second jaw members (3008A, 3008B), wherein the first and second jaw members (602A, 602B) are pivotable relative to one another from an open position to a closed position; and an electrode positioned on the first jaw member; a shaft assembly extending proximally from the end effector, wherein the shaft assembly is at least partially hollow and defines an inner wall; a rotatable drive shaft extending proximally within the shaft assembly; wherein the drive shaft is translatable between a distal position and a proximal position; a first electrical contact coupled to the inner wall of the shaft assembly and positioned around at least a portion of the drive shaft; characterized in that the surgical tool further comprises a second electrical contact coupled to and rotatable with the drive shaft, wherein the second electrical contact is positioned to be electrically connected to the first electrical contact as the drive shaft rotates, an end effector, the end effector comprising: first and second jaw members (3008A, 3008B), wherein the first and second jaw members (602A, 602B) are pivotable relative to one another from an open position to a closed position; and an electrode positioned on the first jaw member; first and second jaw members (3008A, 3008B), wherein the first and second jaw members (602A, 602B) are pivotable relative to one another from an open position to a closed position; and an electrode positioned on the first jaw member; a shaft assembly extending proximally from the end effector, wherein the shaft assembly is at least partially hollow and defines an inner wall; a rotatable drive shaft extending proximally within the shaft assembly; wherein the drive shaft is translatable between a distal position and a proximal position; a first electrical contact coupled to the inner wall of the shaft assembly and positioned around at least a portion of the drive shaft; characterized in that the surgical tool further comprises a second electrical contact coupled to and rotatable with the drive shaft, wherein the second electrical contact is positioned to be electrically connected to the first electrical contact as the drive shaft rotates,
A tie rod structure of a balance boom of a tower crane, comprising: two tie rods intersected with each other at a certain angle, wherein each of the tie rods has a first end connectable with a balance boom of the crane and a second end connectable with a tower head of the crane, and the distance between the first ends of the two tie rods is greater than that between the second ends; an adapting member which is arranged at the second ends of the two tie rods and the second end of each of the tie rods is connected to the adapting member; characterised in that the tie rod structure further comprises two first connecting members disposed separately, wherein each of the first connecting members has a first end connected with the adapting member and a second end connectable with the tower head of the crane by a first pin shaft. two tie rods intersected with each other at a certain angle, wherein each of the tie rods has a first end connectable with a balance boom of the crane and a second end connectable with a tower head of the crane, and the distance between the first ends of the two tie rods is greater than that between the second ends; an adapting member which is arranged at the second ends of the two tie rods and the second end of each of the tie rods is connected to the adapting member; characterised in that the tie rod structure further comprises two first connecting members disposed separately, wherein each of the first connecting members has a first end connected with the adapting member and a second end connectable with the tower head of the crane by a first pin shaft.
A vibration damper, comprising - a housing, which has a first housing element and a second housing element, - a first pin element for connection to a first plate part, - a second pin element for connection to a second plate part, - a first damping insert between the first pin element and the second pin element, - a second damping insert between the first pin element and the first housing element, and - a third damping insert between the second pin element and the second housing element, characterised in that - the first damping insert and/or the second damping insert and/or the third damping insert each comprise a gel pad and two damping plates (13a, 13b) on either side of the gel pad. - a housing, which has a first housing element and a second housing element, - a first pin element for connection to a first plate part, - a second pin element for connection to a second plate part, - a first damping insert between the first pin element and the second pin element, - a second damping insert between the first pin element and the first housing element, and - a third damping insert between the second pin element and the second housing element, characterised in that - the first damping insert and/or the second damping insert and/or the third damping insert each comprise a gel pad and two damping plates (13a, 13b) on either side of the gel pad.
A light detecting apparatus for detecting a signal light component included in input light, said light detecting apparatus comprising: a laser light source for irradiating a test object with a laser light; an optical current transducer unit which includes first and second photoelectric conversion element units (100b, 120b) each configured to convert the input light to an electric current and outputting it, and which is configured to output a differential current between an electric current outputted by the first photoelectric conversion element unit and an electric current outputted by the second photoelectric conversion element unit as a detected current; and a first current/voltage converting unit which is configured to amplify the detected current outputted from said optical current transducer unit, convert it to a voltage signal, and output the voltage signal, characterized in that the first and second photoelectric conversion element units (110b, 120b) are connected in series such that cathodes thereof or anode thereof are connected to each other, and a connection point between the first and second photoelectric conversion element units connected in series is floating, and the input light is a light resulting from the laser light scattered by the test object. a laser light source for irradiating a test object with a laser light; an optical current transducer unit which includes first and second photoelectric conversion element units (100b, 120b) each configured to convert the input light to an electric current and outputting it, and which is configured to output a differential current between an electric current outputted by the first photoelectric conversion element unit and an electric current outputted by the second photoelectric conversion element unit as a detected current; and a first current/voltage converting unit which is configured to amplify the detected current outputted from said optical current transducer unit, convert it to a voltage signal, and output the voltage signal, characterized in that the first and second photoelectric conversion element units (110b, 120b) are connected in series such that cathodes thereof or anode thereof are connected to each other, and a connection point between the first and second photoelectric conversion element units connected in series is floating, and the input light is a light resulting from the laser light scattered by the test object.
A method for planning allocation of time-frequency resources to sustain communication links from a common transmitter to multiple receivers ( RX 1,..., RX k) in a wireless OFDMA communication system, including the steps of selecting a set of time-frequency resource blocks for transmission of one packet for each communication link; determining a gain-to-interference-plus-noise ratio measure ( G k) for each communication link; jointly estimating, within the selected set of time-frequency resource blocks, transmit power ( P k) and transmit rate ( R k) of the packets as functions of determined gain-to-interference-plus-noise ratio measures, to at least approximately minimize expected transmitter energy consumption; characterized by the steps of selecting at least one further set of time-frequency resource blocks for the packets; jointly estimating, within each selected further set of time-frequency resource blocks, transmit power and transmit rate of the packets as functions of determined gain-to-interference-plus-noise ratio measures, to at least approximately minimize expected transmitter energy consumption; comparing expected transmitter energy consumptions for the selected sets (RBS1, RBS2) of time-frequency resource blocks and corresponding transmit powers and transmit rates; and choosing a selected set of time-frequency resource blocks and corresponding jointly estimated transmit powers and transmit rates that resulted in a lowest expected transmitter energy consumption for allocation to the packets, wherein the number of communication links from the common transmitter to the multiple receivers ( RX 1,..., RX k) is greater than the number of receivers (RX 1,..., RX k), and wherein the joint estimation includes the steps of setting initial transmit power estimates, P K *, and initial transmit rate estimates, R K *, of the packets to P K * = ln 2 G k ⁢ TB ∑ j = 1 K L j G j, k = 1,... K R K * = G k TB ∑ j = 1 K L j G j, k = 1,... K where G k is the gain-to-interference-plus-noise-ratio measure on communication link k, G j is the gain-to-interference-plus-noise-ratio measure on communication link j, T is the total available time for allocation of time-frequency resources, B is the total available bandwidth, K is the total number of communication links, L j is the number of bits in a packet on communication link j; and rounding the initial estimates P K * and R K * to nearest permissible values, where necessary. G k is the gain-to-interference-plus-noise-ratio measure on communication link k, G j is the gain-to-interference-plus-noise-ratio measure on communication link j, T is the total available time for allocation of time-frequency resources, B is the total available bandwidth, K is the total number of communication links, L j is the number of bits in a packet on communication link j; and rounding the initial estimates P K * and R K * to nearest permissible values, where necessary.
A method for filtering audio signals to cancel loudspeaker crosstalk in an audio system comprising the steps of inverting a transfer matrix or function of the audio system; using information from the inverted transfer matrix or function to calculate a frequency-dependent regularization parameter that is used to calculate a regularized inverse of said transfer matrix or function to obtain crosstalk cancellation filters that, when applied to audio signals, produces a flat frequency response at any of the loudspeakers of the audio system over an audio band or a portion thereof.
Apparatus for controlling an environment in a greenhouse, the apparatus comprising: a first heat exchanger, comprising a first radiator and a first fan system for driving air through the first radiator and a second heat exchanger comprising a second radiator and a second fan system for driving air through the second radiator; a first refrigerant circulation system that circulates a refrigerant fluid between and through the first and second radiators; a heater controllable to heat the refrigerant; a controller that controls the apparatus to operate selectively in a maintenance mode or a flush mode, wherein in the maintenance mode the heater heats the refrigerant and the first and second fan systems drive air from outside to inside the greenhouse and through the first and second radiators to acquire heat from the refrigerant, and in the flush mode the first fan system vents air from inside to outside the greenhouse through the first radiator to deposit heat in the refrigerant and the second fan system drives air from outside to inside the greenhouse and through the second radiator to acquire the heat deposited in the refrigerant. a first heat exchanger, comprising a first radiator and a first fan system for driving air through the first radiator and a second heat exchanger comprising a second radiator and a second fan system for driving air through the second radiator; a first refrigerant circulation system that circulates a refrigerant fluid between and through the first and second radiators; a heater controllable to heat the refrigerant; a controller that controls the apparatus to operate selectively in a maintenance mode or a flush mode, wherein in the maintenance mode the heater heats the refrigerant and the first and second fan systems drive air from outside to inside the greenhouse and through the first and second radiators to acquire heat from the refrigerant, and in the flush mode the first fan system vents air from inside to outside the greenhouse through the first radiator to deposit heat in the refrigerant and the second fan system drives air from outside to inside the greenhouse and through the second radiator to acquire the heat deposited in the refrigerant.
A liquid discharging apparatus comprising: a holding member configured to hold a roll body on which a medium is wound; a transport unit configured to transport the medium fed from the roll body held by the holding member along a transport path in a transport direction; a discharging unit configured to discharge liquid onto the medium transported by the transport unit; and a vibration unit configured to apply vibration to the medium being transported from the holding member to the transport unit, wherein a path on which the medium to be subjected to vibration by the vibration unit is transported, in the transport path, is referred to as a vibration transport path, and the vibration transport path is configured to extend vertically upward as approaching from the holding member to the transport unit; and characterised in that the liquid discharging apparatus further comprises: a guide unit having a guide surface constituting the vibration transport path, wherein the vibration unit vibrates the guide surface to apply vibration to the medium being transported from the holding member to the transport unit. a holding member configured to hold a roll body on which a medium is wound; a transport unit configured to transport the medium fed from the roll body held by the holding member along a transport path in a transport direction; a discharging unit configured to discharge liquid onto the medium transported by the transport unit; and a vibration unit configured to apply vibration to the medium being transported from the holding member to the transport unit, wherein a path on which the medium to be subjected to vibration by the vibration unit is transported, in the transport path, is referred to as a vibration transport path, and the vibration transport path is configured to extend vertically upward as approaching from the holding member to the transport unit; and characterised in that the liquid discharging apparatus further comprises: a guide unit having a guide surface constituting the vibration transport path, wherein the vibration unit vibrates the guide surface to apply vibration to the medium being transported from the holding member to the transport unit. a guide unit having a guide surface constituting the vibration transport path, wherein the vibration unit vibrates the guide surface to apply vibration to the medium being transported from the holding member to the transport unit.
A network cabinet (100, 1000) comprising: a bottom portion; a center portion including a plurality of equipment rails that define a plurality of rack unit spaces; a top portion including a first front-to-back beam (210, 1105) and a second front-to-back beam (210, 1105); and a network appliance mounting kit positioned in said top portion, said network appliance mounting kit including a mounting feature for attaching a network appliance of rectangular cuboidal geometry to said network cabinet (100, 1000) such that said network appliance does not interfere with any one of said plurality of rack unit spaces, the mounting feature including a first appliance bracket attached to said first front-to-back beam (210, 1105) and a second appliance bracket attached to said second front-to-back beam (210, 1105); an appliance mount plate comprising a securing section, an exhaust section configured to allow the passage of exhaust air and a mounting section, said appliance mount plate being attached to at least one of said first appliance bracket and said second appliance bracket via the securing section, said mounting section of the appliance mount plate being configured for attaching said network appliance thereto vertically relative to said network cabinet (100, 1000). a bottom portion; a center portion including a plurality of equipment rails that define a plurality of rack unit spaces; a top portion including a first front-to-back beam (210, 1105) and a second front-to-back beam (210, 1105); and a network appliance mounting kit positioned in said top portion, said network appliance mounting kit including a mounting feature for attaching a network appliance of rectangular cuboidal geometry to said network cabinet (100, 1000) such that said network appliance does not interfere with any one of said plurality of rack unit spaces, the mounting feature including a first appliance bracket attached to said first front-to-back beam (210, 1105) and a second appliance bracket attached to said second front-to-back beam (210, 1105); an appliance mount plate comprising a securing section, an exhaust section configured to allow the passage of exhaust air and a mounting section, said appliance mount plate being attached to at least one of said first appliance bracket and said second appliance bracket via the securing section, said mounting section of the appliance mount plate being configured for attaching said network appliance thereto vertically relative to said network cabinet (100, 1000).
A method of operating a self-propelled harvester which is operated selectively in a harvesting operating mode and an on-road travel mode, including an internal combustion engine whose rotary speed is adjusted by a control device in dependence on the selected operating mode, characterised in that a starting rotary speed (n Anfahr) is predetermined by the control device in the on-road travel mode for a starting operation from standstill, the starting rotary speed being reduced to an engine speed (n red1, n red2, n red3) required for attaining a permissible maximum travel speed (v max1, v max2, v max3), wherein the starting rotary speed (n Anfahr) is above an engine speed (n red1, n red2, n red3) required for attaining a permissible maximum speed.