mhurhangee/ep-ind-claims huggingface dataset:
A method of determining a soft buffer size for a transport block, the method comprising the steps of: determining a basic unit for the soft buffer size according to a legacy soft buffer size for the transport block and a first parameter; and determining the soft buffer size for the transport block according to the basic unit and a second parameter; wherein the basic unit is determined according to the following equation: N unit = N IR M unit, where N unit is the basic unit, N IR is the legacy soft buffer size for the transport block, and M unit is the first parameter; wherein the soft buffer size for the transport block is M TBS ∗ N unit, where M TBS is the second parameter; wherein the legacy soft buffer size for the transport block corresponds to a modulation level not greater than 64 quadrature amplitude modulation, 64QAM, and wherein the soft buffer size for the transport block corresponds to a modulation level greater than 64QAM. determining a basic unit for the soft buffer size according to a legacy soft buffer size for the transport block and a first parameter; and determining the soft buffer size for the transport block according to the basic unit and a second parameter; wherein the basic unit is determined according to the following equation: N unit = N IR M unit, where N unit is the basic unit, N IR is the legacy soft buffer size for the transport block, and M unit is the first parameter; wherein the soft buffer size for the transport block is M TBS ∗ N unit, where M TBS is the second parameter; wherein the legacy soft buffer size for the transport block corresponds to a modulation level not greater than 64 quadrature amplitude modulation, 64QAM, and wherein the soft buffer size for the transport block corresponds to a modulation level greater than 64QAM.
A process for depositing a metal on a substrate, the process comprising: coating a first reducing agent for metal ions onto a surface of a substrate, the first reducing agent capable of initiating reduction of the metal ions to a metal at ambient temperature within 1 hour with generation of heat, the first reducing agent comprising at least one of hydroxylamine, hydroxylamine hydrochloride, reaction product of hydroxylamine and formic acid, reaction product of hydroxylamine and methyl acrylic acid, phenyl hydrazine, reaction product of phenyl hydrazine and formic acid, or mixtures thereof; applying a solution of the metal ions and a second reducing agent for the metal ions onto the coating of the first reducing agent at ambient temperature, the second reducing agent incapable of initiating reduction of the metal ions to the metal at ambient temperature within 1 hour, to thereby reduce some of the metal ions in a first reduction with the first reducing agent at ambient temperature to deposit the metal on the substrate surface with generation of heat; and, allowing the heat generated by the first reduction to initiate reduction of other of the metal ions in the solution in a second reduction with the second reducing agent at an elevated temperature of 80°C or greater to deposit more of the metal on the substrate in a bottom-up manner starting from the surface of the substrate and working upward, the second reducing agent comprising at least one of formic acid, a formate salt, N,N-dimethylformamide, 1-dimethylamino-2-propanol, ethylene glycol or mixtures thereof. coating a first reducing agent for metal ions onto a surface of a substrate, the first reducing agent capable of initiating reduction of the metal ions to a metal at ambient temperature within 1 hour with generation of heat, the first reducing agent comprising at least one of hydroxylamine, hydroxylamine hydrochloride, reaction product of hydroxylamine and formic acid, reaction product of hydroxylamine and methyl acrylic acid, phenyl hydrazine, reaction product of phenyl hydrazine and formic acid, or mixtures thereof; applying a solution of the metal ions and a second reducing agent for the metal ions onto the coating of the first reducing agent at ambient temperature, the second reducing agent incapable of initiating reduction of the metal ions to the metal at ambient temperature within 1 hour, to thereby reduce some of the metal ions in a first reduction with the first reducing agent at ambient temperature to deposit the metal on the substrate surface with generation of heat; and, allowing the heat generated by the first reduction to initiate reduction of other of the metal ions in the solution in a second reduction with the second reducing agent at an elevated temperature of 80°C or greater to deposit more of the metal on the substrate in a bottom-up manner starting from the surface of the substrate and working upward, the second reducing agent comprising at least one of formic acid, a formate salt, N,N-dimethylformamide, 1-dimethylamino-2-propanol, ethylene glycol or mixtures thereof.
Method for degassing a treatment substance of a fiber web, in which method the treatment substance is degassed in a degassing unit, in which temperature of the treatment substance is adjusted to temperature below 35 °C by cooling the treatment substance in a temperature control unit before degassing of the treatment substance in the degassing unit, characterized in that temperature changes of the treatment substance are evened out in the temperature control unit before degassing of the treatment substance in the degassing unit such that the temperature control unit maintains the temperature changes of the treatments substance flow below 1 °/15 min.
An encoding method performed by an encoding apparatus, comprising: obtaining a first sequence used to encode K to-be-encoded bits, K being a positive integer, wherein the first sequence comprises sequence numbers of N polarized channels, the sequence numbers of the N polarized channels are arranged in the first sequence based on reliability of the N polarized channels, N is a mother code length of a polar code, N = 2 n, n is a positive integer, and K≤N, wherein the first sequence is all of or a subset of a second sequence, the second sequence comprises sequence numbers of N max polarized channels, the sequence numbers of the N max polarized channels are arranged in the second sequence based on reliability of the N max polarized channels, an order in which the sequence numbers of the polarized channels in the first sequence are arranged is consistent with an order in which sequence numbers less than N in the sequence numbers of the polarized channels in the second sequence are arranged, N≥64, N max is a positive integer, N max ≥N; selecting sequence numbers of K polarized channels from the first sequence based on a reliability order; and placing the K to-be-encoded bits based on the selected sequence numbers of the K polarized channels, and performing polar code encoding on the K to-be-encoded bits, wherein N max =1024, the second sequence is the sequence in Table Q11, characterized in that the Table Q11 is: obtaining a first sequence used to encode K to-be-encoded bits, K being a positive integer, wherein the first sequence comprises sequence numbers of N polarized channels, the sequence numbers of the N polarized channels are arranged in the first sequence based on reliability of the N polarized channels, N is a mother code length of a polar code, N = 2 n, n is a positive integer, and K≤N, wherein the first sequence is all of or a subset of a second sequence, the second sequence comprises sequence numbers of N max polarized channels, the sequence numbers of the N max polarized channels are arranged in the second sequence based on reliability of the N max polarized channels, an order in which the sequence numbers of the polarized channels in the first sequence are arranged is consistent with an order in which sequence numbers less than N in the sequence numbers of the polarized channels in the second sequence are arranged, N≥64, N max is a positive integer, N max ≥N; selecting sequence numbers of K polarized channels from the first sequence based on a reliability order; and placing the K to-be-encoded bits based on the selected sequence numbers of the K polarized channels, and performing polar code encoding on the K to-be-encoded bits, wherein N max =1024, the second sequence is the sequence in Table Q11, characterized in that the Table Q11 is:
Radiator arrangement comprising a radiator having a flow channel and a flow connection connected to the flow channel and a return connection, wherein the radiator arrangement further comprises a connecting channel which is arranged between the flow connection and the return connection, and pressure regulating means configured for controlling a flow pressure in the flow channel on basis of a return pressure in the connecting channel, wherein the pressure regulating means are arranged in the connecting channel, so that they are built in and hidden in the radiator, the pressure regulating means forming a seal between the connecting channel and the flow connection, and the pressure regulating means comprise a pressure responsive element loaded by the return pressure in the connecting channel.
A hybrid electric propulsion system comprising: a gas turbine engine comprising a low speed spool and a high speed spool, the low speed spool comprising a low pressure compressor and a low pressure turbine, and the high speed spool comprising a high pressure compressor and a high pressure turbine; an electric generator configured to extract power from the low speed spool; an electric motor configured to augment rotational power of the high speed spool; and a controller configured to: determine a target operating condition of the low pressure compressor to achieve a compressor stability margin in the gas turbine engine; determine a current operating condition of the low pressure compressor; and control a power transfer between the electric generator of the low speed spool and the electric motor of the high speed spool to adjust the current operating condition based on the target operating condition that reduces a pressure ratio of the low pressure compressor and that increases the low pressure compressor air flow. a gas turbine engine comprising a low speed spool and a high speed spool, the low speed spool comprising a low pressure compressor and a low pressure turbine, and the high speed spool comprising a high pressure compressor and a high pressure turbine; an electric generator configured to extract power from the low speed spool; an electric motor configured to augment rotational power of the high speed spool; and a controller configured to: determine a target operating condition of the low pressure compressor to achieve a compressor stability margin in the gas turbine engine; determine a current operating condition of the low pressure compressor; and control a power transfer between the electric generator of the low speed spool and the electric motor of the high speed spool to adjust the current operating condition based on the target operating condition that reduces a pressure ratio of the low pressure compressor and that increases the low pressure compressor air flow. determine a target operating condition of the low pressure compressor to achieve a compressor stability margin in the gas turbine engine; determine a current operating condition of the low pressure compressor; and control a power transfer between the electric generator of the low speed spool and the electric motor of the high speed spool to adjust the current operating condition based on the target operating condition that reduces a pressure ratio of the low pressure compressor and that increases the low pressure compressor air flow.
A cutting assembly installable on a self-propelled vehicle and comprising a first flail mower and a second flail mower, wherein each flail mower (10, 20) comprises a box body (10A, 20A) and plant material cutting means supported within said box body (10A, 20A), said cutting assembly comprising: - a base support connectable, directly or indirectly, to said self-propelled vehicle; - a first support frame hinged to said base support so as to rotate about a first rotation axis; - first moving means for rotating said first frame about said first rotation axis; - a second frame connected to said second flail mower and hinged to said first frame so as to rotate about a second rotation axis; - second moving means for rotating said second frame, with respect to said first frame, about said second rotation axis; characterised in that said first support frame supports said first flail mower in a slidable way to allow said first flail mower to translate along a first displacement direction orthogonal to said first rotation axis; and in that said cutting assembly comprises: - a connecting element that operatively connects said second frame to said box body of said first flail mower, so that a rotation of said second frame about said second rotation axis determines a corresponding translation of said first flail mower, with respect to said first frame, along said first displacement direction. - a base support connectable, directly or indirectly, to said self-propelled vehicle; - a first support frame hinged to said base support so as to rotate about a first rotation axis; - first moving means for rotating said first frame about said first rotation axis; - a second frame connected to said second flail mower and hinged to said first frame so as to rotate about a second rotation axis; - second moving means for rotating said second frame, with respect to said first frame, about said second rotation axis; - a connecting element that operatively connects said second frame to said box body of said first flail mower, so that a rotation of said second frame about said second rotation axis determines a corresponding translation of said first flail mower, with respect to said first frame, along said first displacement direction.
A sensing device comprising a sensor for detecting a condition of ambient air, a housing with vents (3(a), 3(b)) for access by ambient air to the sensor, a signal processing circuit (18, 19) with a processor linked with the sensor, a power supply for the circuit and the sensor, and an obstacle detector comprising: an ultrasonic transducer (16, 21) mounted to have a field of emission outside of the detector, and through ambient air, and a circuit including a processor (18, 19) linked with the ultrasonic transducer to monitor ultrasonic return signal values and process them to determine object presence data, wherein the processor is configured to monitor ultrasonic return values and to process them to determine if any have been reflected by an unwanted obstacle, and is configured to generate an alert to indicate presence of such an obstacle which may affect access of ambient air to the sensor through the vents, characterized in that, the processor is programmed to detect ambient air instability either before or as part of an obstacle detection operation by recording ultrasonic return signal amplitude values for each of a plurality of sample points, and quantifying variance across said values, and if said variance exceeds a threshold determine that there is excessive ambient air instability. an ultrasonic transducer (16, 21) mounted to have a field of emission outside of the detector, and through ambient air, and a circuit including a processor (18, 19) linked with the ultrasonic transducer to monitor ultrasonic return signal values and process them to determine object presence data, wherein the processor is configured to monitor ultrasonic return values and to process them to determine if any have been reflected by an unwanted obstacle, and is configured to generate an alert to indicate presence of such an obstacle which may affect access of ambient air to the sensor through the vents,
Circuit arrangement for the bidirectional operation of sound transducers (4, 5) disposed at the ends of a measuring section, having a signal generator and a receiver which are connected to the sound transducers (4, 5) by means of switch elements (20, 21, 24, 25, 33, 34, 38, 39), terminating impedances (22, 23) being connected in parallel with the sound transducers (4, 5), and the signal generator being a signal current source (31, 32) whose internal impedance is above the magnitude of the terminating impedances (22, 23), characterized in that the receiver can be conductively connected to the sound transducers (4, 5) via a reception multiplexer (38 to 43), and in that the reception multiplexer has switching transistors (38, 39) whose control input (40, 41) is supplied by current sources (42, 43).
A node for extending a wake up time of a wireless user equipment, UE, the node comprising: a memory, the memory configured to store data to be transmitted to the UE; a processor, the processor configured to: determine if the memory is storing data to be transmitted to the UE; determine if the wake up time of the UE coincides with a periodic subframe, the periodic subframe occurring with a periodicity; and cause transmission of a message for a grant to the UE if the determination is made that the memory is storing data to be transmitted to the UE and the wake up time of the UE coincides with the periodic subframe, wherein the grant to the UE is configured to cause the UE to extend the wake up time of the UE, the grant to the UE being transmitted to the UE during a non-extended portion of the wake up time of the UE. a memory, the memory configured to store data to be transmitted to the UE; a processor, the processor configured to: determine if the memory is storing data to be transmitted to the UE; determine if the wake up time of the UE coincides with a periodic subframe, the periodic subframe occurring with a periodicity; and cause transmission of a message for a grant to the UE if the determination is made that the memory is storing data to be transmitted to the UE and the wake up time of the UE coincides with the periodic subframe, wherein the grant to the UE is configured to cause the UE to extend the wake up time of the UE, the grant to the UE being transmitted to the UE during a non-extended portion of the wake up time of the UE. determine if the memory is storing data to be transmitted to the UE; determine if the wake up time of the UE coincides with a periodic subframe, the periodic subframe occurring with a periodicity; and cause transmission of a message for a grant to the UE if the determination is made that the memory is storing data to be transmitted to the UE and the wake up time of the UE coincides with the periodic subframe, wherein the grant to the UE is configured to cause the UE to extend the wake up time of the UE, the grant to the UE being transmitted to the UE during a non-extended portion of the wake up time of the UE.
An apparatus, comprising: an ablation power generator of ablative electrical energy; an insertion tube _having a distal end configured for insertion into proximity with tissue in a body of a patient and containing a lumen comprising an electrical conductor for conveying the ablative electrical energy to the tissue; a conductive cap attached to the distal end of the insertion tube and coupled electrically to the electrical conductor; at least one optical fiber contained within the insertion tube and terminating in proximity to an outer surface of the conductive cap and being configured to convey optical radiation to the tissue while the ablation power generator is activated and electrical energy is conveyed to the tissue and to receive reflected optical radiation via the at least one optical fiber; an optical module configured to provide optical radiation to the at least one optical fiber and to measure the received reflected optical radiation; a processor linked to the optical module and configured to analyze the reflected optical radiation in order to recognise a characteristic signature in the reflected optical radiation indicative of an impending steam pop event; and characterised in that the characteristic signature comprises a high frequency pattern in a second derivative of the reflected optical radiation with respect to time. an ablation power generator of ablative electrical energy; an insertion tube _having a distal end configured for insertion into proximity with tissue in a body of a patient and containing a lumen comprising an electrical conductor for conveying the ablative electrical energy to the tissue; a conductive cap attached to the distal end of the insertion tube and coupled electrically to the electrical conductor; at least one optical fiber contained within the insertion tube and terminating in proximity to an outer surface of the conductive cap and being configured to convey optical radiation to the tissue while the ablation power generator is activated and electrical energy is conveyed to the tissue and to receive reflected optical radiation via the at least one optical fiber; an optical module configured to provide optical radiation to the at least one optical fiber and to measure the received reflected optical radiation; a processor linked to the optical module and configured to analyze the reflected optical radiation in order to recognise a characteristic signature in the reflected optical radiation indicative of an impending steam pop event; and
A method of facilitating data protection on a mobile communication device, said method comprising: receiving (302, 502) an instruction to insert data into an e-mail message; determining (308, 504) that a first e-mail service of the mobile communication device arranged to send and receive data has been selected for transmission of said e-mail message; determining (310, 506) that said data is associated with a second secure e-mail service of the mobile communication device other than the first e-mail service and arranged to send and receive data; and upon determining that said data is associated with the second secure e-mail service, preventing (314, 510) insertion of said data into said e-mail message. receiving (302, 502) an instruction to insert data into an e-mail message; determining (308, 504) that a first e-mail service of the mobile communication device arranged to send and receive data has been selected for transmission of said e-mail message; determining (310, 506) that said data is associated with a second secure e-mail service of the mobile communication device other than the first e-mail service and arranged to send and receive data; and upon determining that said data is associated with the second secure e-mail service, preventing (314, 510) insertion of said data into said e-mail message.