mhurhangee/ep-ind-claims huggingface dataset:
An electronic device comprising: a display panel; a plurality of input sensing panels which are one of layered on and bonded to the display panel; a driver integrated circuit connected to the display panel and configured to generate a synchronization signal for controlling the display panel; and a plurality of input sensors connected to the plurality of input sensing panels and configured to scan a respective one of the plurality of input sensing panels, according to scan timing, which is time-divided with reference to the synchronization signal, wherein the plurality of input sensors have a plurality of scan modes, wherein the scan timing is generated to firstly scan an input sensing panel that is less influenced by a harmonic signal caused by driving of the display panel from among the plurality of input sensing panels and is changed according to a change of a scan mode of at least one of the plurality of input sensors to reduce the effect on reference electric potential of another input sensing panel on the change of scan mode. a display panel; a plurality of input sensing panels which are one of layered on and bonded to the display panel; a driver integrated circuit connected to the display panel and configured to generate a synchronization signal for controlling the display panel; and a plurality of input sensors connected to the plurality of input sensing panels and configured to scan a respective one of the plurality of input sensing panels, according to scan timing, which is time-divided with reference to the synchronization signal, wherein the plurality of input sensors have a plurality of scan modes, wherein the scan timing is generated to firstly scan an input sensing panel that is less influenced by a harmonic signal caused by driving of the display panel from among the plurality of input sensing panels and is changed according to a change of a scan mode of at least one of the plurality of input sensors to reduce the effect on reference electric potential of another input sensing panel on the change of scan mode.
A system for controlling congestion on one or more network connections between a network device and a communications network, comprising: a network communications stack operative to control network communications on the one or more connections; one or more congestion control modules, each congestion control module defining a congestion control algorithm to control congestion on a respective one of the one or more network connections and maintaining one or more connection state variables for the respective connection; and a plurality of congestion control module abstractions, each congestion control module abstraction defining a type of congestion control module, wherein the network communications stack is operative, for each of the one or more connections, to select one of the congestion control modules for a given connection based on characteristics of the network connection and to notify the selected congestion control module that controls congestion on the connection of one or more transport control events that occur on the connection, and wherein the network communications stack is operative to select a first of the plurality of congestion control module abstractions for a first of the one or more connections and to create a first of the one or more congestion control modules from the first congestion control module abstraction, characterised in that a network interface module of the network device is operative to generate timestamps for packets received on a connection, wherein the timestamps are passed to the network communications stack to be used in controlling congestion on the connection. a network communications stack operative to control network communications on the one or more connections; one or more congestion control modules, each congestion control module defining a congestion control algorithm to control congestion on a respective one of the one or more network connections and maintaining one or more connection state variables for the respective connection; and a plurality of congestion control module abstractions, each congestion control module abstraction defining a type of congestion control module, wherein the network communications stack is operative, for each of the one or more connections, to select one of the congestion control modules for a given connection based on characteristics of the network connection and to notify the selected congestion control module that controls congestion on the connection of one or more transport control events that occur on the connection, and wherein the network communications stack is operative to select a first of the plurality of congestion control module abstractions for a first of the one or more connections and to create a first of the one or more congestion control modules from the first congestion control module abstraction, characterised in that a network interface module of the network device is operative to generate timestamps for packets received on a connection, wherein the timestamps are passed to the network communications stack to be used in controlling congestion on the connection.
A micropump with a deformable membrane including: - a first chamber, one wall of which includes a first deformable membrane and means (72, 81, 83) for actuating this first membrane, - a second chamber provided with a second deformable membrane and a third chamber, provided with a third deformable membrane, the second chamber and the third chamber being connected together through a first channel, at least one of them being connected through a second channel (12, 14) to the first chamber, Characterised in that: - each of the second chamber and third chamber (11, 13) includes detection means (R1-R4, R'1-R'4) for detecting deformation of the corresponding membrane portion under the action of a fluid flowing in the micropump, but not being provided with activation means, said deformation detection means, respectively associated with the second chamber and third chamber, forming flow measurement means. - a first chamber, one wall of which includes a first deformable membrane and means (72, 81, 83) for actuating this first membrane, - a second chamber provided with a second deformable membrane and a third chamber, provided with a third deformable membrane, the second chamber and the third chamber being connected together through a first channel, at least one of them being connected through a second channel (12, 14) to the first chamber, Characterised in that: - each of the second chamber and third chamber (11, 13) includes detection means (R1-R4, R'1-R'4) for detecting deformation of the corresponding membrane portion under the action of a fluid flowing in the micropump, but not being provided with activation means, said deformation detection means, respectively associated with the second chamber and third chamber, forming flow measurement means.
Electrical machine having a rotor and a stator, wherein the rotor or the stator has at least one coil with a coil core and a coil winding encompassing the coil core, wherein the coil winding has at least one winding made from a flat conductor (12, 27), which is S-shaped in cross-section and/or meandering in form, and is bent about a plurality of spaced apart and parallel bending axes (13, 14), wherein the flat conductor (12, 27) for reducing eddy currents has a plurality of layers which are insulated from one another at least partly and/or a plurality of slot-like recesses and the winding has a first contact leg arranged on a first side of the coil core and projecting with a free edge in the direction of the coil core, a second contact leg arranged on a second side of the coil core opposite the first side and projecting with a free edge in the direction of the coil core and a connecting leg connecting the first contact leg and the second contact leg, and the contact legs (17, 18) as viewed in radial direction are provided on opposite sides of the connecting leg, and the connecting leg is connected via a first bend to the first contact leg and is connected via a second bend to the second contact leg, wherein the bends (15, 16) are bent respectively about one of the bending axes (13, 14) and the first bend is a component of the first contact leg and the second bend is a component of the second contact leg, characterised in that the first contact leg is arranged spaced apart in the region of a first bend and/or the second contact leg is arranged spaced apart in the region of a second bend of the connecting leg respectively for forming a fluid channel (23, 24).
A system for collecting an anaesthetic agent, the system comprising: at least one anaesthetic gas scavenging system AGSS (30, 330, 430), configured to receive exhaust gas from a plurality of sources (12, 14, 16, 312, 412), the exhaust gas including the anaesthetic agent to be collected, each AGSS (30, 330, 430) comprising at least one power source (433a, 433b) configured to provide suction of the exhaust gas from the plurality of sources (12, 14, 16, 312, 412) under negative pressure; and a central collection system (10, 310, 410) configured to receive the exhaust gas, the central collection system (10, 310, 410) comprising at least one collector configured to collect the anaesthetic agent from the exhaust gas, characterized in that the at least one collector (42, 342, 442) is configured to adsorb the anaesthetic agent from the exhaust gas, and the at least one power source (433a, 433b) outputs the exhaust gas under positive pressure such that the at least one collector (42, 342, 442) collects the anaesthetic agent under positive pressure; and the central collection (10, 310, 410) system further comprises a disinfection module for disinfecting the exhaust gas and outputting a disinfected exhaust gas. at least one anaesthetic gas scavenging system AGSS (30, 330, 430), configured to receive exhaust gas from a plurality of sources (12, 14, 16, 312, 412), the exhaust gas including the anaesthetic agent to be collected, each AGSS (30, 330, 430) comprising at least one power source (433a, 433b) configured to provide suction of the exhaust gas from the plurality of sources (12, 14, 16, 312, 412) under negative pressure; and a central collection system (10, 310, 410) configured to receive the exhaust gas, the central collection system (10, 310, 410) comprising at least one collector configured to collect the anaesthetic agent from the exhaust gas, characterized in that the at least one collector (42, 342, 442) is configured to adsorb the anaesthetic agent from the exhaust gas, and the at least one power source (433a, 433b) outputs the exhaust gas under positive pressure such that the at least one collector (42, 342, 442) collects the anaesthetic agent under positive pressure; and the central collection (10, 310, 410) system further comprises a disinfection module for disinfecting the exhaust gas and outputting a disinfected exhaust gas.
A process for preparing an alkoxylation catalyst comprising: providing a catalyst precursor formed by reacting an alkoxylated alcohol mixture having the general formula: R 1 -O-(C n H 2n O) p H wherein R 1 is an organic radical containing from 1 to 30 carbon atoms, n is 1-3, and p is an integer of from 1 to 50, with calcium hydroxide, a carboxylic acid having from 5 to 15 carbon atoms, an inorganic acid, and propylene oxide, propoxylating at least a portion of the alkoxylated alcohols; and adding an antioxidant to said catalyst precursor to produce an alkoxylation catalyst, wherein the antioxidant is butylated hydroxytoluene or butylated hydroxyanisole.
A rectifying circuit comprising: between a first terminal (23, 24) of application of an A.C. voltage (Vac) and a first terminal of delivery of a rectified voltage (Vout), a first diode (D3, D4); between a second terminal (24, 23) of application of the A.C. voltage and a second terminal of delivery of the rectified voltage, a first anode-gate thyristor (T2, T1; T), the anode of the first thyristor being connected to the second rectified voltage delivery terminal; and at least one stage (29; 25, 26) for controlling the first thyristor, comprising: another diode (D29; D25, D26) connected by its anode to the first thyristor gate and by its cathode to the second terminal for delivering the rectified voltage (Vout); and a capacitive element (C29; C25, C26) in series with a resistive element (R29; R25, R26) adapted to connect the first thyristor gate to a control pulse generation circuit. between a first terminal (23, 24) of application of an A.C. voltage (Vac) and a first terminal of delivery of a rectified voltage (Vout), a first diode (D3, D4); between a second terminal (24, 23) of application of the A.C. voltage and a second terminal of delivery of the rectified voltage, a first anode-gate thyristor (T2, T1; T), the anode of the first thyristor being connected to the second rectified voltage delivery terminal; and at least one stage (29; 25, 26) for controlling the first thyristor, comprising: another diode (D29; D25, D26) connected by its anode to the first thyristor gate and by its cathode to the second terminal for delivering the rectified voltage (Vout); and a capacitive element (C29; C25, C26) in series with a resistive element (R29; R25, R26) adapted to connect the first thyristor gate to a control pulse generation circuit. another diode (D29; D25, D26) connected by its anode to the first thyristor gate and by its cathode to the second terminal for delivering the rectified voltage (Vout); and a capacitive element (C29; C25, C26) in series with a resistive element (R29; R25, R26) adapted to connect the first thyristor gate to a control pulse generation circuit.
A method of transmitting a feedback frame in a wireless local area network, WLAN, system, the method comprising: generating, by a first station, STA, the feedback frame based on a multi input multi output, MIMO, beamforming procedure; and transmitting, by the first STA, the feedback frame to a second STA, wherein the feedback frame includes digital beamforming matrices information for a number of feedback subcarriers for a predetermined frequency band, wherein the feedback subcarriers include a first subcarrier, second subcarriers and third subcarriers, wherein the first subcarrier is configured as a left edge subcarrier or right edge subcarrier of the predetermined frequency band, wherein the second subcarriers are subcarriers whose subcarrier indices are -2 and 2, wherein the third subcarriers are remaining subcarriers excluding the first subcarrier and the second subcarriers, wherein the information for the first subcarrier is transmitted first and the information for the second subcarriers is statically transmitted, wherein each distance between two adjacent third subcarriers is determined by a grouping value, and wherein the grouping value is dynamically changed to 2, 4 or 8 within the feedback frame for the third subcarriers based on channel state information. generating, by a first station, STA, the feedback frame based on a multi input multi output, MIMO, beamforming procedure; and transmitting, by the first STA, the feedback frame to a second STA, wherein the feedback frame includes digital beamforming matrices information for a number of feedback subcarriers for a predetermined frequency band, wherein the feedback subcarriers include a first subcarrier, second subcarriers and third subcarriers, wherein the first subcarrier is configured as a left edge subcarrier or right edge subcarrier of the predetermined frequency band, wherein the second subcarriers are subcarriers whose subcarrier indices are -2 and 2, wherein the third subcarriers are remaining subcarriers excluding the first subcarrier and the second subcarriers, wherein the information for the first subcarrier is transmitted first and the information for the second subcarriers is statically transmitted, wherein each distance between two adjacent third subcarriers is determined by a grouping value, and wherein the grouping value is dynamically changed to 2, 4 or 8 within the feedback frame for the third subcarriers based on channel state information.
A method for manufacturing an elevator guide rail, the method comprising: providing a hot-formed guide rail having, in a cross-section, a head portion and a foot portion; and cold-forming the provided guide rail through a die, characterised in that said cold-forming is applied only to the head portion and not to the foot portion, wherein the cold-formed head portion forms a tread of the guide rail. providing a hot-formed guide rail having, in a cross-section, a head portion and a foot portion; and cold-forming the provided guide rail through a die, characterised in that said cold-forming is applied only to the head portion and not to the foot portion, wherein the cold-formed head portion forms a tread of the guide rail.
A secondary battery pack comprising: a battery cell having a cathode terminal and an anode terminal formed at one face having a sealed surplus portion; and a protection circuit module electrically connected to the battery cell via the cathode terminal and the anode terminal, wherein the PCM comprises: a board having a cathode terminal connection part connected to the cathode terminal and an anode terminal connection part connected to the anode terminal; and a first case and a second case each having an open face, the first case and the second case being coupled to each other so that the open faces of the first case and the second case are opposite to each other, the board being disposed in a space defined in the first case and the second case through the open faces, and the first case and the second case, in which the board is disposed, are mounted to the sealed surplus portion of the battery cell by bending the electrode terminals, wherein the anode terminal connection part of the PCM is connected to the anode terminal of the battery cell via a safety element. wherein the first case or the second case is provided with an opening, through which the safety element located in the PCM is exposed outside. a battery cell having a cathode terminal and an anode terminal formed at one face having a sealed surplus portion; and a protection circuit module electrically connected to the battery cell via the cathode terminal and the anode terminal, wherein the PCM comprises: a board having a cathode terminal connection part connected to the cathode terminal and an anode terminal connection part connected to the anode terminal; and a first case and a second case each having an open face, the first case and the second case being coupled to each other so that the open faces of the first case and the second case are opposite to each other, the board being disposed in a space defined in the first case and the second case through the open faces, and a board having a cathode terminal connection part connected to the cathode terminal and an anode terminal connection part connected to the anode terminal; and a first case and a second case each having an open face, the first case and the second case being coupled to each other so that the open faces of the first case and the second case are opposite to each other, the board being disposed in a space defined in the first case and the second case through the open faces, and the first case and the second case, in which the board is disposed, are mounted to the sealed surplus portion of the battery cell by bending the electrode terminals, wherein the anode terminal connection part of the PCM is connected to the anode terminal of the battery cell via a safety element. wherein the first case or the second case is provided with an opening, through which the safety element located in the PCM is exposed outside.
A device comprising: electronics incorporating: a transmitter configured to wirelessly transmit one or more commands to a remote HVAC unit; a communication module configured to establish a direct link connection between the device and one of a low power network and a local low energy direct link; a controller configured to: communicate with the HVAC unit via the transmitter; and directly communicate with a remote device via the communication module, wherein the controller is configured to directly communicate with the remote device over the low power network when the device is connected to the low power network and the controller is configured to directly communicate with the remote device over the local low energy direct link when the device is connected to the local low energy direct link; and a power source operatively coupled to the electronics and configured to power the electronics. electronics incorporating: a transmitter configured to wirelessly transmit one or more commands to a remote HVAC unit; a communication module configured to establish a direct link connection between the device and one of a low power network and a local low energy direct link; a controller configured to: communicate with the HVAC unit via the transmitter; and directly communicate with a remote device via the communication module, wherein the controller is configured to directly communicate with the remote device over the low power network when the device is connected to the low power network and the controller is configured to directly communicate with the remote device over the local low energy direct link when the device is connected to the local low energy direct link; and a transmitter configured to wirelessly transmit one or more commands to a remote HVAC unit; a communication module configured to establish a direct link connection between the device and one of a low power network and a local low energy direct link; a controller configured to: communicate with the HVAC unit via the transmitter; and directly communicate with a remote device via the communication module, wherein the controller is configured to directly communicate with the remote device over the low power network when the device is connected to the low power network and the controller is configured to directly communicate with the remote device over the local low energy direct link when the device is connected to the local low energy direct link; and communicate with the HVAC unit via the transmitter; and directly communicate with a remote device via the communication module, wherein the controller is configured to directly communicate with the remote device over the low power network when the device is connected to the low power network and the controller is configured to directly communicate with the remote device over the local low energy direct link when the device is connected to the local low energy direct link; and a power source operatively coupled to the electronics and configured to power the electronics.