mhurhangee/ep-ind-claims huggingface dataset:
A method for communicating support of operations for enhanced direction multi-gigabit, EDMG, communications, the method comprising: transmitting, by a transmit device, an operation element including an operating channel width field, the operating channel width field including bit positions, bit values of the bit positions being set to indicate support of operation of the transmit device from among defined options, the defined options including: the transmit device can perform channel bonding only, the transmit device can perform carrier aggregation only, and the transmit device can perform both channel bonding and carrier aggregation; wherein the operating channel width field includes a supported channel width field, the supported channel width field including the bit positions, and said method characterised in that the supported channel width field is 4 bits long, wherein bit values of 2 bits are set to indicate the support of operation of the transmit device from among the defined options, and bit values of another 2 bits are set to indicate the respective channel width of one or more supported channels; or the supported channel width field is 5 bits long, wherein bit value of a first bit is set to indicate whether the transmit device supports channel bonding operation and bit value of a second bit is separately set to indicate whether the transmit device supports carrier aggregation operation, and wherein bit value of another pair of bits is set to indicate channel width for channel bonding and bit value of a third bit is set to indicate channel width for carrier aggregation. transmitting, by a transmit device, an operation element including an operating channel width field, the operating channel width field including bit positions, bit values of the bit positions being set to indicate support of operation of the transmit device from among defined options, the defined options including: the transmit device can perform channel bonding only, the transmit device can perform carrier aggregation only, and the transmit device can perform both channel bonding and carrier aggregation; wherein the operating channel width field includes a supported channel width field, the supported channel width field including the bit positions, and said method characterised in that the supported channel width field is 4 bits long, wherein bit values of 2 bits are set to indicate the support of operation of the transmit device from among the defined options, and bit values of another 2 bits are set to indicate the respective channel width of one or more supported channels; or the supported channel width field is 5 bits long, wherein bit value of a first bit is set to indicate whether the transmit device supports channel bonding operation and bit value of a second bit is separately set to indicate whether the transmit device supports carrier aggregation operation, and wherein bit value of another pair of bits is set to indicate channel width for channel bonding and bit value of a third bit is set to indicate channel width for carrier aggregation.
A blast furnace operation method including charging blast furnace feed materials into a blast furnace, the blast furnace feed materials including product sintered ore, lump iron ore, and an auxiliary material for control of the slag basicity defined by CaO/SiO 2, the blast furnace operation method comprising: a sintering step for sintering a sintering raw material to form a sintered cake; a crushing step for crushing the sintered cake to form sintered ore; a cooling step for cooling the sintered ore; a sieving step for sieving the cooled sintered ore to separate into product sintered ore and return ore; a measuring step for measuring a component concentration of at least one of the cooled sintered ore, the product sintered ore, and the return ore, each being transferred on a conveyor (30,32), by using an infrared analyzer, or a laser analyzer, or a neutron analyzer or a microwave analyzer; and an adjusting step for adjusting consumptions of the product sintered ore, the lump iron ore, and the auxiliary material, which are to be included in the blast furnace feed materials, wherein, in the adjusting step, the total component amounts of the blast furnace feed materials are calculated by using the component concentrations of at least one of the cool sintered ore, the product sintered ore and the return ore measured in the measuring step and premeasured component concentrations of lump iron ore, and the auxiliary material, and by using the calculated value, feed forward control is performed by adjusting the consumptions of the blast furnace feed materials by using the component concentration measured in the measuring step. a sintering step for sintering a sintering raw material to form a sintered cake; a crushing step for crushing the sintered cake to form sintered ore; a cooling step for cooling the sintered ore; a sieving step for sieving the cooled sintered ore to separate into product sintered ore and return ore; a measuring step for measuring a component concentration of at least one of the cooled sintered ore, the product sintered ore, and the return ore, each being transferred on a conveyor (30,32), by using an infrared analyzer, or a laser analyzer, or a neutron analyzer or a microwave analyzer; and an adjusting step for adjusting consumptions of the product sintered ore, the lump iron ore, and the auxiliary material, which are to be included in the blast furnace feed materials, wherein, in the adjusting step, the total component amounts of the blast furnace feed materials are calculated by using the component concentrations of at least one of the cool sintered ore, the product sintered ore and the return ore measured in the measuring step and premeasured component concentrations of lump iron ore, and the auxiliary material, and by using the calculated value, feed forward control is performed by adjusting the consumptions of the blast furnace feed materials by using the component concentration measured in the measuring step.
A mixed resin, comprising: a regrind of a multilayer structure including an ethylene-vinyl alcohol copolymer layer and a thermoplastic resin layer; and a recycling agent, comprising a polymer, obtained by reacting a modified olefin-based polymer (a-1) with a polymer (a-2) containing a terminal functional group, and an alkali metal compound, wherein the modified olefin-based polymer (a-1) is a polymer modified with from 0.01 to 2 mass% of unsaturated carboxylic acid or a derivative thereof, and the polymer (a-2) has an SP value, calculated from the Fedors equation, of from 9 to 15 (cal/cm 3) 1/2 and is a polymer containing a terminal functional group, capable of reacting with the modified olefin-based polymer (a-1), at both ends or one end thereof and has a number average molecular weight from 1,500 to 100,000; wherein the recycling agent is contained from 0.5 to 10 mass%.
A system for improving security of a device comprising: - a message authentication code generator configured to generate a first MAC based on a first authentication key and a second MAC based on a second authentication key; and - a mixing unit that is configured to: generate the first authentication key for a first segment of data, the first authentication key being the output of a mixing function applied to a first ciphertext corresponding with the first segment of data; and generate the second authentication key for a second segment of data, the second authentication key being the output of the mixing function applied to a second ciphertext corresponding with the second segment of data; wherein the first authentication key is different from the second authentication key; and wherein the mixing function is a XOR tree mixing function in which input bits (A1, A2, A3,...) are used to select corresponding subkeys (K1, K2, K3,...) to be XORed, and further comprises a final scrambling step making the construction non-linear, the scrambling step being comprised of rotate-add operations or a series of nonlinear S-box operations. - a message authentication code generator configured to generate a first MAC based on a first authentication key and a second MAC based on a second authentication key; and - a mixing unit that is configured to: generate the first authentication key for a first segment of data, the first authentication key being the output of a mixing function applied to a first ciphertext corresponding with the first segment of data; and generate the second authentication key for a second segment of data, the second authentication key being the output of the mixing function applied to a second ciphertext corresponding with the second segment of data; wherein the first authentication key is different from the second authentication key; and wherein the mixing function is a XOR tree mixing function in which input bits (A1, A2, A3,...) are used to select corresponding subkeys (K1, K2, K3,...) to be XORed, and further comprises a final scrambling step making the construction non-linear, the scrambling step being comprised of rotate-add operations or a series of nonlinear S-box operations. generate the first authentication key for a first segment of data, the first authentication key being the output of a mixing function applied to a first ciphertext corresponding with the first segment of data; and generate the second authentication key for a second segment of data, the second authentication key being the output of the mixing function applied to a second ciphertext corresponding with the second segment of data; wherein the first authentication key is different from the second authentication key; and wherein the mixing function is a XOR tree mixing function in which input bits (A1, A2, A3,...) are used to select corresponding subkeys (K1, K2, K3,...) to be XORed, and further comprises a final scrambling step making the construction non-linear, the scrambling step being comprised of rotate-add operations or a series of nonlinear S-box operations.
Jet regulator (127, 130) having a jet regulator housing which, on its housing outer circumference, has an outer thread for screwing into an inner thread in the water outlet of a sanitary outlet fitting, wherein the jet regulator housing has, on its housing outer circumference, at least one cross-sectional widening (6, 7) which is made of the same material as the housing portion of the jet regulator housing supporting the outer thread and which is formed integrally thereon, and which can bear sealingly on the water outlet at the end face and/or at the inner circumference, characterized in that a housing sub-region of the jet regulator housing, disposed on the outflow side of the outer thread, is angled in the direction towards the inner circumference of the water outlet in such a way that a drainage annular space is formed between this housing sub-region and the inner circumference of the water outlet.
Seat belt buckle for a restraining system of a motor vehicle, comprising - a housing, - an insertion slot for the insertion of a belt tongue, and - a push button displaceable between a default position and a releasing position for releasing the belt tongue, characterized in that - the seat belt buckle comprises an electric actuator, which is adapted - to move the push button from the default position to the releasing position, and/or to move a locking element of the seat belt buckle from a latched state to an unlatched state, and/or - to lock and unlock the push button in the default position, and/or to lock and unlock the locking element in a latched state, wherein - the seat belt buckle comprises a control rod, which is connected to the push button wherein the control rod can be actuated by the electric actuator, characterized in that, the control rod is connected to the push button via a sliding connection. - a housing, - an insertion slot for the insertion of a belt tongue, and - a push button displaceable between a default position and a releasing position for releasing the belt tongue, characterized in that - the seat belt buckle comprises an electric actuator, which is adapted - to move the push button from the default position to the releasing position, and/or to move a locking element of the seat belt buckle from a latched state to an unlatched state, and/or - to lock and unlock the push button in the default position, and/or to lock and unlock the locking element in a latched state, wherein - the seat belt buckle comprises a control rod, which is connected to the push button wherein the control rod can be actuated by the electric actuator,
A surgical system comprising: a double lumen endotracheal tube configured for insertion into an airway of a patient, the double lumen endotracheal tube comprising first and second lumens (32a, 32b), one of the first and second lumens being configured to receive a bronchoscope therein for visual guidance in appropriately placing the double lumen endotracheal tube within the airway of the patient; an endoscopic navigation catheter configured for navigation of a luminal network comprising the airways of the patient to an area of interest; at least one laparoscopic access port (36a, 36b), for placement in proximity to the area of interest; a laparoscopic tool configured for insertion through the at least one laparoscopic access port (36a, 36b); an endoscopic tool (50, 90) configured for insertion through the endoscopic navigation catheter, wherein the laparoscopic tool and endoscopic tool enable a combined laparoscopic and endoscopic approach to the area of interest; a tracking system, wherein the endoscopic tool includes an electromagnetic sensor positioned on a distal portion of the endoscopic tool, the distal portion of the endoscopic tool being trackable by the tracking system, and wherein the laparoscopic tool includes an electromagnetic sensor positioned on a distal portion of the laparoscopic tool, the distal portion of the laparoscopic tool being trackable by the tracking system; and a workstation for displaying the tracked positions of the distal portions of the endoscopic tool and laparoscopic tool relative to a 3D model of the luminal network. a double lumen endotracheal tube configured for insertion into an airway of a patient, the double lumen endotracheal tube comprising first and second lumens (32a, 32b), one of the first and second lumens being configured to receive a bronchoscope therein for visual guidance in appropriately placing the double lumen endotracheal tube within the airway of the patient; an endoscopic navigation catheter configured for navigation of a luminal network comprising the airways of the patient to an area of interest; at least one laparoscopic access port (36a, 36b), for placement in proximity to the area of interest; a laparoscopic tool configured for insertion through the at least one laparoscopic access port (36a, 36b); an endoscopic tool (50, 90) configured for insertion through the endoscopic navigation catheter, wherein the laparoscopic tool and endoscopic tool enable a combined laparoscopic and endoscopic approach to the area of interest; a tracking system, wherein the endoscopic tool includes an electromagnetic sensor positioned on a distal portion of the endoscopic tool, the distal portion of the endoscopic tool being trackable by the tracking system, and wherein the laparoscopic tool includes an electromagnetic sensor positioned on a distal portion of the laparoscopic tool, the distal portion of the laparoscopic tool being trackable by the tracking system; and a workstation for displaying the tracked positions of the distal portions of the endoscopic tool and laparoscopic tool relative to a 3D model of the luminal network.
A method comprising: receiving (302,402) video content comprising an audio component and a video component; detecting (304,406), by a processing device, occurrence of a wind noise artifact in a segment of the audio component; identifying (306,408) duration of the wind noise artifact and intensity of the wind noise artifact; selecting (308,410), by the processing device, a wind noise replacement operation based on at least the identified duration and intensity of the wind noise artifact; and applying (310,412), by the processing device, the selected wind noise replacement operation to the segment of the audio component to remove the wind noise artifact from the segment. receiving (302,402) video content comprising an audio component and a video component; detecting (304,406), by a processing device, occurrence of a wind noise artifact in a segment of the audio component; identifying (306,408) duration of the wind noise artifact and intensity of the wind noise artifact; selecting (308,410), by the processing device, a wind noise replacement operation based on at least the identified duration and intensity of the wind noise artifact; and applying (310,412), by the processing device, the selected wind noise replacement operation to the segment of the audio component to remove the wind noise artifact from the segment.
A control apparatus of an engine having a first fuel injection valve for injecting fuel into an intake path of the engine, a second fuel injection valve for injecting fuel into a combustion chamber of the engine, a supercharger for supercharging intake air for the engine, and a waste gate valve for opening and closing an exhaust bypass passage for bypassing a turbine of the supercharger, the control apparatus comprising: fuel injection control means for controlling injection amounts of fuel injected from the first fuel injection valve and the second fuel injection valve in accordance with an operating state of the engine; and valve control means for changing an open/closed state of the waste gate valve in accordance with the injection amounts of fuel injected from the first fuel injection valve and the second fuel injection valve, wherein the fuel injection control means increases the injection amount of fuel injected from the second fuel injection valve in accordance with an increase in a load or speed of the engine, and the valve control means changes the open/closed state of the waste gate valve in a sequence of an open state, a closed state, and the open state as the injection amount of fuel injected from the second fuel injection valve increases, wherein the open state may not only be a fully open state but also a slightly closed state and the closed state may not only be a fully closed state but also a slightly open state and wherein the fuel injection control means changes injection ratios of fuel injected from the first fuel injection valve and the second fuel injection valve in accordance with an operating range of the engine, and the valve control means sets the waste gate valve in the open state in a first operating range on a low rotation, low load side in which the injection amount of the first fuel injection valve is large. fuel injection control means for controlling injection amounts of fuel injected from the first fuel injection valve and the second fuel injection valve in accordance with an operating state of the engine; and valve control means for changing an open/closed state of the waste gate valve in accordance with the injection amounts of fuel injected from the first fuel injection valve and the second fuel injection valve,
A filter cleaning device comprising: a filter (10,110); a brush unit (20,120) movably installed at one side of the filter (10,110) to separate dust from the filter (10,110); a brush movement unit (30,130) configured so that the brush unit (20,120) is movable along the filter (10,110); and brush guides (40,140) installed at two sides of the brush unit (20,120) to guide a movement of the brush unit (20,120), characterised in that each of the brush guides (40,140) comprises: a first guide groove (41,141) formed so that the brush unit (20,120) is moved to be in contact with the filter (10,110); and a second guide groove (43,143) formed so that the brush unit (20,120) is moved to be separated from the filter (10,110). a filter (10,110); a brush unit (20,120) movably installed at one side of the filter (10,110) to separate dust from the filter (10,110); a brush movement unit (30,130) configured so that the brush unit (20,120) is movable along the filter (10,110); and brush guides (40,140) installed at two sides of the brush unit (20,120) to guide a movement of the brush unit (20,120), characterised in that each of the brush guides (40,140) comprises: a first guide groove (41,141) formed so that the brush unit (20,120) is moved to be in contact with the filter (10,110); and a second guide groove (43,143) formed so that the brush unit (20,120) is moved to be separated from the filter (10,110). a first guide groove (41,141) formed so that the brush unit (20,120) is moved to be in contact with the filter (10,110); and a second guide groove (43,143) formed so that the brush unit (20,120) is moved to be separated from the filter (10,110).
A heat transfer module for a fluid temperature control facility, comprising: - a heat exchange device designed to exchange calories with fluid circulating in the heat exchange device from a fluid inlet to a fluid outlet, and - a decoupling canister, comprising first and second fluid inlets and first and second fluid outlets, the decoupling canister being suitable for hydraulically decoupling a flow of fluid flowing between the first fluid outlet and the first fluid inlet, from a flow of fluid flowing between the second fluid outlet and the second fluid inlet, characterized in that the decoupling canister is fixed on the heat exchange device, and in that the first fluid inlet and the second fluid outlet of the decoupling canister are directly connected to the fluid outlet and the fluid inlet, respectively, of the heat exchange device. - a heat exchange device designed to exchange calories with fluid circulating in the heat exchange device from a fluid inlet to a fluid outlet, and - a decoupling canister, comprising first and second fluid inlets and first and second fluid outlets, the decoupling canister being suitable for hydraulically decoupling a flow of fluid flowing between the first fluid outlet and the first fluid inlet, from a flow of fluid flowing between the second fluid outlet and the second fluid inlet, characterized in that the decoupling canister is fixed on the heat exchange device, and in that the first fluid inlet and the second fluid outlet of the decoupling canister are directly connected to the fluid outlet and the fluid inlet, respectively, of the heat exchange device.