mhurhangee/patent-ind-claim-en huggingface dataset:
A wear assembly comprising: a wear member comprising a point ; a support structure comprising an adaptor ; an opening defined by holes in the wear member and the support structure and a lock received into the opening to enable loading of the support structure of the wear assembly to the wear member ; characterized in that the lock comprises: a frusto-conical wedge with a rounded exterior surface with a thread formation comprising a helical groove of wide pitch; and a C-shaped spool having a body and arms and with a trough-shaped recess with a thread formation to fit within the wide pitched helical groove of the frusto-conical wedge . a wear member comprising a point ; a support structure comprising an adaptor ; an opening defined by holes in the wear member and the support structure and a lock received into the opening to enable loading of the support structure of the wear assembly to the wear member ; characterized in that the lock comprises: a frusto-conical wedge with a rounded exterior surface with a thread formation comprising a helical groove of wide pitch; and a C-shaped spool having a body and arms and with a trough-shaped recess with a thread formation to fit within the wide pitched helical groove of the frusto-conical wedge . a frusto-conical wedge with a rounded exterior surface with a thread formation comprising a helical groove of wide pitch; and a C-shaped spool having a body and arms and with a trough-shaped recess with a thread formation to fit within the wide pitched helical groove of the frusto-conical wedge .
An actuator control system (ACS) for a rotorcraft , the ACS comprising: a flight control computer (FCC) ; a first rotor system comprising a first swashplate ; a second rotor system comprising a second swashplate ; a first plurality of actuators ; a second plurality of actuators ; a third plurality of actuators; a fourth plurality of actuators; a first communications channel comprising a first set of wiring configured to communicate signals between the FCC , a first actuator of the first plurality of actuators , and a second actuator of the second plurality of actuators , wherein at least one of the first plurality of actuators is part of the first rotor system , and at least one of the second plurality of actuators is part of the second rotor system , the second rotor system different than the first rotor system ; and wherein at least one of the third plurality of actuators is part of the first rotor system , and at least one of the fourth plurality of actuators is part of the second rotor system ; wherein each of the first, second, third and fourth plurality of actuators are a plurality of swashplate actuators, characterized in that the ACS further comprises: a second communications channel comprising a second set of wiring configured to communicate signals between the FCC , a third actuator of the third plurality of actuators, and a fourth actuator of the fourth plurality of actuators. a flight control computer (FCC) ; a first rotor system comprising a first swashplate ; a second rotor system comprising a second swashplate ; a first plurality of actuators ; a second plurality of actuators ; a third plurality of actuators; a fourth plurality of actuators; a first communications channel comprising a first set of wiring configured to communicate signals between the FCC , a first actuator of the first plurality of actuators , and a second actuator of the second plurality of actuators , wherein at least one of the first plurality of actuators is part of the first rotor system , and at least one of the second plurality of actuators is part of the second rotor system , the second rotor system different than the first rotor system ; and wherein at least one of the third plurality of actuators is part of the first rotor system , and at least one of the fourth plurality of actuators is part of the second rotor system ; wherein each of the first, second, third and fourth plurality of actuators are a plurality of swashplate actuators, characterized in that the ACS further comprises: a second communications channel comprising a second set of wiring configured to communicate signals between the FCC , a third actuator of the third plurality of actuators, and a fourth actuator of the fourth plurality of actuators.
Withdrawal apparatus for withdrawing a hot gas from a flue gas line of a reaction vessel , in particular an LD converter or an arc furnace, - wherein the withdrawal apparatus comprises a withdrawal housing , a filter device and a preliminary separator having a magnet arrangement , - wherein the hot gas comprises at least a first fraction and a second fraction of particle material , - wherein the withdrawal housing has a feed opening for feeding the hot gas into an interior space of the withdrawal housing , - wherein the filter device is arranged in the interior space downstream of the feed opening , in order to filter the second fraction of particle material from the hot gas as the hot gas passes through the filter device , - wherein the magnet arrangement provides an overall magnetic field which penetrates the interior space between the filter device and the withdrawal housing at least in certain portions to separate the first fraction of particle material from the hot gas on a separation face of the withdrawal apparatus , characterized by - a thermally insulating layer , - wherein the thermally insulating layer is arranged between the withdrawal housing and the magnet arrangement and on the outer side of an external circumferential side of the withdrawal housing , - wherein the thermally insulating layer thermally insulates the magnet arrangement with respect to the withdrawal housing . - wherein the withdrawal apparatus comprises a withdrawal housing , a filter device and a preliminary separator having a magnet arrangement , - wherein the hot gas comprises at least a first fraction and a second fraction of particle material , - wherein the withdrawal housing has a feed opening for feeding the hot gas into an interior space of the withdrawal housing , - wherein the filter device is arranged in the interior space downstream of the feed opening , in order to filter the second fraction of particle material from the hot gas as the hot gas passes through the filter device , - wherein the magnet arrangement provides an overall magnetic field which penetrates the interior space between the filter device and the withdrawal housing at least in certain portions to separate the first fraction of particle material from the hot gas on a separation face of the withdrawal apparatus , characterized by - a thermally insulating layer , - wherein the thermally insulating layer is arranged between the withdrawal housing and the magnet arrangement and on the outer side of an external circumferential side of the withdrawal housing , - wherein the thermally insulating layer thermally insulates the magnet arrangement with respect to the withdrawal housing .
A luminaire comprising: - an LED load ; - an input configured to receive a rectified AC input signal (Vin); - an output configured to provide a controlled output signal (Vout) to the LED load ; - a switched mode power converter configured to transform the rectified AC input signal (Vin) into the controlled output signal (Vout), wherein the switched mode power converter has an input configured to receive a start-up voltage (Vstart) for changing a stand-by mode of the switched mode power converter into an operating mode of the switched mode power converter by providing the start-up voltage (Vstart) to a switched mode power converter controller coupled to a control terminal of a switch (SW) of the switched mode power converter; - a control circuit configured to receive a control signal (Vctl); - a kick-start power supply configured to receive a switch-on signal (Von) to supply the start-up voltage (Vstart) being larger than a power supply voltage (Vsup), - an auxiliary power supply configured to supply the power supply voltage (Vsup) to the control circuit and the kick-start power supply , wherein the control circuit is arranged for activating the switch-on signal (Von) to activate the kick-start power supply for turning the switched mode power converter from the stand-by mode into the operating mode. - an LED load ; - an input configured to receive a rectified AC input signal (Vin); - an output configured to provide a controlled output signal (Vout) to the LED load ; - a switched mode power converter configured to transform the rectified AC input signal (Vin) into the controlled output signal (Vout), wherein the switched mode power converter has an input configured to receive a start-up voltage (Vstart) for changing a stand-by mode of the switched mode power converter into an operating mode of the switched mode power converter by providing the start-up voltage (Vstart) to a switched mode power converter controller coupled to a control terminal of a switch (SW) of the switched mode power converter; - a control circuit configured to receive a control signal (Vctl); - a kick-start power supply configured to receive a switch-on signal (Von) to supply the start-up voltage (Vstart) being larger than a power supply voltage (Vsup), - an auxiliary power supply configured to supply the power supply voltage (Vsup) to the control circuit and the kick-start power supply ,
System for measuring the position of a counterweight suspended beside a support post of a catenary installation, the measuring system comprising: - a first module intended to be fixed to the support post ; - a second module intended to be fixed to the counterweight or to a suspension cable of the counterweight , below the first module ; characterised in that : - the first module comprises an acoustic wave transceiver ; - the second module comprises an acoustic wave transceiver ; and in that the measurement system comprises electronic processing means comprising: - first means for triggering the emission of a first acoustic wave (U1) by the first module ; - second means for triggering the emission of a second acoustic wave (U2) by the second module following the reception of the first acoustic wave (U1) by the second module ; - first means for determining a response time between the emission of the first acoustic wave (U1) and the reception of the second acoustic wave (U2) by the first module ; - means for calculating a distance (D) between the first module and the second module on the basis of the response time. - a first module intended to be fixed to the support post ; - a second module intended to be fixed to the counterweight or to a suspension cable of the counterweight , below the first module ; - the first module comprises an acoustic wave transceiver ; - the second module comprises an acoustic wave transceiver ; - first means for triggering the emission of a first acoustic wave (U1) by the first module ; - second means for triggering the emission of a second acoustic wave (U2) by the second module following the reception of the first acoustic wave (U1) by the second module ; - first means for determining a response time between the emission of the first acoustic wave (U1) and the reception of the second acoustic wave (U2) by the first module ; - means for calculating a distance (D) between the first module and the second module on the basis of the response time.
An electronic device, comprising: a circuit board having heat generating components thereon; spring clips ; and a heat sink , disposed over the circuit board, through which heat from the circuit board and the components thereon is released or dissipated, and having a generally flat horizontal base and a series of vertically directed fins ; wherein the heat sink is secured to at least one of the circuit board and at least one of the components thereon by the spring clips being positioned at a periphery of the horizontal base, the spring clips having distal contact prongs that contact and apply downward force on the horizontal base, characterized by comprising a shield attached to at least one of a bottom surface of the circuit board and a bottom frame of the electronic device, the shield being further attached to the spring clips . a circuit board having heat generating components thereon; spring clips ; and a heat sink , disposed over the circuit board, through which heat from the circuit board and the components thereon is released or dissipated, and having a generally flat horizontal base and a series of vertically directed fins ; wherein the heat sink is secured to at least one of the circuit board and at least one of the components thereon by the spring clips being positioned at a periphery of the horizontal base, the spring clips having distal contact prongs that contact and apply downward force on the horizontal base, characterized by comprising a shield attached to at least one of a bottom surface of the circuit board and a bottom frame of the electronic device, the shield being further attached to the spring clips .
A cleaner which performs an autonomous driving, comprising: a cleaner body ; a driving unit for moving the cleaner body ; a camera for detecting 3D coordinates information; a memory for storing pattern information related to a charging station ; and a controller for comparing the 3D coordinates information detected by the camera with the pattern information related to the charging station stored in the memory , and for determining whether the charging station is positioned near the cleaner body based on a result of the comparison, wherein if the detected 3D coordinates information matches the pattern information, the controller is configured to determine that the charging station is positioned near the cleaner body ; characterized in that : if the detected 3D coordinates information does not match the pattern information, the controller is configured to determine that the cleaner body and the charging station are spaced apart from each other by more than a limited distance. a cleaner body ; a driving unit for moving the cleaner body ; a camera for detecting 3D coordinates information; a memory for storing pattern information related to a charging station ; and a controller for comparing the 3D coordinates information detected by the camera with the pattern information related to the charging station stored in the memory , and for determining whether the charging station is positioned near the cleaner body based on a result of the comparison, wherein if the detected 3D coordinates information matches the pattern information, the controller is configured to determine that the charging station is positioned near the cleaner body ; characterized in that : if the detected 3D coordinates information does not match the pattern information, the controller is configured to determine that the cleaner body and the charging station are spaced apart from each other by more than a limited distance.
Method for manufacturing a hollow fiber membrane comprising the following steps: • providing at least one spin mass comprising polysulfone and polyvinylpyrrolidone, at least one aprotic polar solvent and an α-Tocopherol, in particular a tocotrienol, • providing at least one coagulant comprising at least one aprotic polar solvent and/or at least one non-solvent, in particular water, • conveying the spin mass through at least one annular gap of a spinneret into a hollow spinning yarn, • conveying the coagulant through a central bore of the spinneret into the lumen of the spinning yarn, • introducing the spinning yarn into a precipitating bath, characterized in that the spin mass contains 0.001 to 0.05% by weight of the α-Tocopherol, in particular the tocotrienol, and the coagulant furthermore comprises 0.5 g to 4 g polyvinylpyrrolidone per kg coagulant. • providing at least one spin mass comprising polysulfone and polyvinylpyrrolidone, at least one aprotic polar solvent and an α-Tocopherol, in particular a tocotrienol, • providing at least one coagulant comprising at least one aprotic polar solvent and/or at least one non-solvent, in particular water, • conveying the spin mass through at least one annular gap of a spinneret into a hollow spinning yarn, • conveying the coagulant through a central bore of the spinneret into the lumen of the spinning yarn, • introducing the spinning yarn into a precipitating bath,
Method for controlling a weighing device (DP) by a terminal (TER), the weighing device (DP) comprising an internal energy source (E), a control entity (C) arranged to receive control pieces of information (Cde) according to a communication protocol and at least one functional element (F) capable of being controlled by the control entity (C), the control method comprising the following steps: - (E1) developing by the terminal (TER) and/or acquiring a control piece of information (Cde) comprising at least one refresh instruction (Ins_ra) or update instruction (Ins_ac) related to a cycle period (Tc) and/or a duty cycle (rc) of refreshing or updating a function of the at least one functional element (F) of the weighing device (DP), - (E2) sending said control piece of information (Cde) to the control entity (C) according to the communication protocol (com). - (E1) developing by the terminal (TER) and/or acquiring a control piece of information (Cde) comprising at least one refresh instruction (Ins_ra) or update instruction (Ins_ac) related to a cycle period (Tc) and/or a duty cycle (rc) of refreshing or updating a function of the at least one functional element (F) of the weighing device (DP), - (E2) sending said control piece of information (Cde) to the control entity (C) according to the communication protocol (com).
System comprising a television appliance , wherein the television appliance is a TV and a remote controller , wherein the remote controller comprises a communication means , wherein the communication means is an IR transmitter for transferring operation commands, wherein the operation commands are channel switching commands to the television appliance , the television appliance comprises a receiver for receiving the operation commands and a sender for sending responses to the remote controller in dependency of the received operation commands, wherein the remote controller comprises a feedback receiver for receiving the responses send by sender, wherein the remote controller comprises a memory for storing data, and wherein the remote controller comprises a microcontroller for tracking the outputted operation commands in dependency of the received responses, characterized in that the remote controller comprises an input means for inputting channel lock commands, wherein the microcontroller stores channel data identifying the locked channel in that memory, wherein the microcontroller determines if an operation command causes tuning to a locked channel, wherein the microcontroller compares the operation command and channel data stored in memory, wherein the microcontroller blocks or restricts outputting of channel tuning commands for channel tuning to a locked channel or wherein the microcontroller causes outputting of channel tuning commands for channel tuning to a not restricted channel, wherein a channel search command and/or a channel list reconfiguration command can be triggered by the input means, wherein the microcontroller of the remote controller blocks or restricts the channel search command and/or the channel list reconfiguration command in case at least one channel is locked wherein the IR transmitter forwards an IR signal to TV in case a button is pressed and TV sends the same command back to feedback receiver to be sure that TV changed the channel in dependency of the forwarded IR signal.
A computer-implemented medical method of determining a hypersurface image from a tomographic image data set describing a tomographic image of an anatomical body part of a patient, the method comprising the following steps: a) patient image data is acquired (S11) which describes a tomographic medical image of the anatomical body part; b) surface detecting device position data is acquired (S12) which describes a relative position between a surface detecting device and the anatomical body part; c) depth map data is determined (S13) based on at least one electronic signal generated by the surface detecting device, wherein the depth map data describes a surface profile of the surface of the anatomical body part; characterized in that d) hypersurface image data is determined (S14) based on the patient image data and the surface detection device position data and the depth map data, wherein the hypersurface image data describes a hypersurface image generated from the patient image data; and e) image display data is determined for displaying the hypersurface image on a display device, wherein the image display data is determined based on the hypersurface image data. a) patient image data is acquired (S11) which describes a tomographic medical image of the anatomical body part; b) surface detecting device position data is acquired (S12) which describes a relative position between a surface detecting device and the anatomical body part; c) depth map data is determined (S13) based on at least one electronic signal generated by the surface detecting device, wherein the depth map data describes a surface profile of the surface of the anatomical body part; characterized in that d) hypersurface image data is determined (S14) based on the patient image data and the surface detection device position data and the depth map data, wherein the hypersurface image data describes a hypersurface image generated from the patient image data; and e) image display data is determined for displaying the hypersurface image on a display device, wherein the image display data is determined based on the hypersurface image data.
A bone marrow access apparatus comprising: a bone penetrating member ; and a cap ; wherein the bone penetrating member comprises: a tubular insertion portion ; a head portion provided at a proximal end of the tubular insertion portion, a cross-sectional shape of the head portion being wider than a cross-sectional shape of the tubular insertion portion; and an internal channel provided through the head portion and the tubular insertion portion ; wherein the cap accommodates the head portion of the bone penetrating member therein; and wherein the cap comprises: a lower wall which covers at least a part of a distal side of the head portion; the bone marrow access apparatus being characterized by : a recess provided in the head portion the bone penetrating member; and the cap comprising a projection which projects into the recess of the head portion. a bone penetrating member ; and a cap ; wherein the bone penetrating member comprises: a tubular insertion portion ; a head portion provided at a proximal end of the tubular insertion portion, a cross-sectional shape of the head portion being wider than a cross-sectional shape of the tubular insertion portion; and an internal channel provided through the head portion and the tubular insertion portion ; a tubular insertion portion ; a head portion provided at a proximal end of the tubular insertion portion, a cross-sectional shape of the head portion being wider than a cross-sectional shape of the tubular insertion portion; and an internal channel provided through the head portion and the tubular insertion portion ; wherein the cap accommodates the head portion of the bone penetrating member therein; and wherein the cap comprises: a lower wall which covers at least a part of a distal side of the head portion; the bone marrow access apparatus being characterized by : a recess provided in the head portion the bone penetrating member; and the cap comprising a projection which projects into the recess of the head portion. a lower wall which covers at least a part of a distal side of the head portion; the bone marrow access apparatus being characterized by : a recess provided in the head portion the bone penetrating member; and the cap comprising a projection which projects into the recess of the head portion. a recess provided in the head portion the bone penetrating member; and the cap comprising a projection which projects into the recess of the head portion.