mhurhangee/ep-ind-claims huggingface dataset:
A real-time multi-task scheduling method, wherein the method comprises: determining that laxity correction should be performed for a currently scheduled thread when an execution progress of the currently scheduled thread is equal to the preset task proportion, wherein the preset task proportion is preset by specifying in the program code of the thread, at the preset task proportion, to perform a laxity correction operation; acquiring a remaining execution time of the currently scheduled thread according to the execution progress of the currently scheduled thread and a time for which the currently scheduled thread has been executed, wherein the execution progress is a task completion proportion in the currently scheduled thread; acquiring a laxity of the currently scheduled thread according to the remaining execution time of the currently scheduled thread and a deadline of the currently scheduled thread, wherein the laxity refers to the remaining idle time in assuming that the task is completed; determining a priority of the thread according to the laxity of the currently scheduled thread, where a smaller laxity indicates a higher priority, and re-determining a priority queue according to the priority of the thread, wherein the re-determining a priority queue means that if the currently scheduled thread has a high priority, the currently scheduled thread is put into a high-priority queue to queue up, otherwise, the currently scheduled thread is put into a common-priority queue to queue up; and successively scheduling threads in the queue according to the re-determined priority queue. determining that laxity correction should be performed for a currently scheduled thread when an execution progress of the currently scheduled thread is equal to the preset task proportion, wherein the preset task proportion is preset by specifying in the program code of the thread, at the preset task proportion, to perform a laxity correction operation; acquiring a remaining execution time of the currently scheduled thread according to the execution progress of the currently scheduled thread and a time for which the currently scheduled thread has been executed, wherein the execution progress is a task completion proportion in the currently scheduled thread; acquiring a laxity of the currently scheduled thread according to the remaining execution time of the currently scheduled thread and a deadline of the currently scheduled thread, wherein the laxity refers to the remaining idle time in assuming that the task is completed; determining a priority of the thread according to the laxity of the currently scheduled thread, where a smaller laxity indicates a higher priority, and re-determining a priority queue according to the priority of the thread, wherein the re-determining a priority queue means that if the currently scheduled thread has a high priority, the currently scheduled thread is put into a high-priority queue to queue up, otherwise, the currently scheduled thread is put into a common-priority queue to queue up; and successively scheduling threads in the queue according to the re-determined priority queue.
A method of patterning cells on a surface of a substrate, comprising: disposing a predetermined two dimensional pattern of nucleic acids on a surface of a substrate; contacting the patterned nucleic acids under hybridization conditions with a first suspension of cells, wherein cells of the first suspension comprise cell surface-attached nucleic acids complementary to the patterned nucleic acids, and wherein the cell surface-attached nucleic acids hybridize to the patterned nucleic acids to generate a 2D pattern of the cells on the surface of the substrate; and removing the pattern of cells by: embedding the cells in a biocompatible matrix comprising a nuclease, wherein the embedding comprises: covering the pattern of cells with a liquid biocompatible matrix comprising the nuclease under conditions that maintain the biocompatible matrix in a liquid state; and incubating the cells in the biocompatible matrix under physiological temperature to simultaneously trigger setting of the biocompatible matrix around the cells and cleavage of the nucleic acids; and removing the biocompatible matrix from the surface, wherein the pattern of cells is retained in the biocompatible matrix upon removal. disposing a predetermined two dimensional pattern of nucleic acids on a surface of a substrate; contacting the patterned nucleic acids under hybridization conditions with a first suspension of cells, wherein cells of the first suspension comprise cell surface-attached nucleic acids complementary to the patterned nucleic acids, and wherein the cell surface-attached nucleic acids hybridize to the patterned nucleic acids to generate a 2D pattern of the cells on the surface of the substrate; and removing the pattern of cells by: embedding the cells in a biocompatible matrix comprising a nuclease, wherein the embedding comprises: covering the pattern of cells with a liquid biocompatible matrix comprising the nuclease under conditions that maintain the biocompatible matrix in a liquid state; and incubating the cells in the biocompatible matrix under physiological temperature to simultaneously trigger setting of the biocompatible matrix around the cells and cleavage of the nucleic acids; and removing the biocompatible matrix from the surface, wherein the pattern of cells is retained in the biocompatible matrix upon removal. covering the pattern of cells with a liquid biocompatible matrix comprising the nuclease under conditions that maintain the biocompatible matrix in a liquid state; and incubating the cells in the biocompatible matrix under physiological temperature to simultaneously trigger setting of the biocompatible matrix around the cells and cleavage of the nucleic acids; and removing the biocompatible matrix from the surface, wherein the pattern of cells is retained in the biocompatible matrix upon removal.
An operating-lever sealing structure, comprising a housing (20, 30) of a switch, an operation hole (22, 32) having an axial direction being made in said housing (20, 30), an operating lever, said operating lever having a shaft portion which is turnably supported in said operation hole (22, 32) made in said housing (20, 30) of said switch, characterized in that a sealing ring is axially sandwiched between an inside opening edge portion of said operation hole (22, 32) of said housing (20, 30) and a guard portion provided in an outer circumferential surface of said shaft portion of said operating lever (22, 32).
An endoscope having an operating handle comprising a handle housing arranged at a proximal end of the endoscope, an insertion tube extending from said handle towards a tip part at a distal end of the endoscope, and a sealed compartment adapted to accommodate electronic circuitry of the endoscope and arranged at least partially within said handle housing where said sealed compartment furthermore comprises a cable conduit extending from a mounting plate towards the distal end of the endoscope, said conduit being terminated in a sealing manner at the distal end of the endoscope so as to provide a single sealed compartment extending all the way to the tip part, characterized in that the sealed compartment comprises the mounting plate, the mounting plate being adapted to carry said electronic circuitry, and a cover attached to and sealed with respect to the mounting plate, so as to enclose the electronic circuitry.
An assembly comprising: a first vane pack having a plurality of vanes, each vane having an airfoil, a platform, and forward and aft mounting hooks; a second vane pack having a plurality of vanes, each vane having an airfoil, a platform, and forward and aft mounting hooks, wherein the second vane pack is disposed to abut the first vane pack; and a liner lock segment disposed between the first vane pack and the second vane pack, and characterized by the liner lock segment including a first finger that overlays the first vane pack and a second finger that overlays the second vane pack, and wherein the liner lock segment includes a lip that extends between the first finger and the second finger), and wherein the lip is adapted to mount on the aft mounting hook of at least one of the plurality of vanes. a first vane pack having a plurality of vanes, each vane having an airfoil, a platform, and forward and aft mounting hooks; a second vane pack having a plurality of vanes, each vane having an airfoil, a platform, and forward and aft mounting hooks, wherein the second vane pack is disposed to abut the first vane pack; and a liner lock segment disposed between the first vane pack and the second vane pack, and characterized by the liner lock segment including a first finger that overlays the first vane pack and a second finger that overlays the second vane pack, and wherein the liner lock segment includes a lip that extends between the first finger and the second finger), and wherein the lip is adapted to mount on the aft mounting hook of at least one of the plurality of vanes.
A unitary forward mounting assembly for a bodymaker, said unitary forward mounting comprising: a unitary forward mounting body including a cradle portion, a first support arm portion and a second support arm portion; wherein said cradle portion has a forward side, a rear side, a right side, and a left side; said first support arm portion disposed at said cradle portion right side; and said second support arm portion disposed at said cradle portion left side; characterised in that said cradle portion defines a die pack mounting and a cup load station assembly mounting; said first support arm portion defines a turret sub-assembly mounting; said first support arm portion and said second support arm portion collectively define a domer door assembly mounting; and said cradle portion, said first support arm portion and said second support arm portion collectively define a stripper bulkhead assembly mounting. a unitary forward mounting body including a cradle portion, a first support arm portion and a second support arm portion; wherein said cradle portion has a forward side, a rear side, a right side, and a left side; said first support arm portion disposed at said cradle portion right side; and said second support arm portion disposed at said cradle portion left side; characterised in that said cradle portion defines a die pack mounting and a cup load station assembly mounting; said first support arm portion defines a turret sub-assembly mounting; said first support arm portion and said second support arm portion collectively define a domer door assembly mounting; and said cradle portion, said first support arm portion and said second support arm portion collectively define a stripper bulkhead assembly mounting.
A method performed by a terminal in a wireless communication system using a cooperative multi-point, CoMP, scheme, the method comprising: receiving configuration information including pairs of parameters to be used to determine a initialization value c init of a demodulation reference signal, DM-RS, random sequence related to physical downlink shared channel, PDSCH, via higher layer signaling, wherein each pair contains a subframe offset value and a X nSCID2 value; receiving control information for scheduling transmission on the PDSCH, the control information comprising a legacy 3-bit field indicating an antenna port, scrambling identity, and number of layers, and a information field with 1 or 2 bit size; and receiving downlink data on the PDSCH based on the initialization value c init of the DM-RS random sequence, wherein the initialization value c init of the DM-RS random sequence is determined as c init = ⌊ n s, n SCID 2 / 2 ⌋ + 1 ⋅ 2 X n SCID 2 + 1 ⋅ 2 16 + n SCID, where: n SCID is determined by the legacy 3-bit field of the control information and takes values between 0 and 1, n SCID 2 is determined by the information field of the control information and takes values among integers in a range of [0, N-1], N=2^(bit size), and n s,nSCID 2 is determined based on the subframe offset value, and wherein one pair of the pairs of the parameters is determined based on the n SCID 2. receiving configuration information including pairs of parameters to be used to determine a initialization value c init of a demodulation reference signal, DM-RS, random sequence related to physical downlink shared channel, PDSCH, via higher layer signaling, wherein each pair contains a subframe offset value and a X nSCID2 value; receiving control information for scheduling transmission on the PDSCH, the control information comprising a legacy 3-bit field indicating an antenna port, scrambling identity, and number of layers, and a information field with 1 or 2 bit size; and receiving downlink data on the PDSCH based on the initialization value c init of the DM-RS random sequence, wherein the initialization value c init of the DM-RS random sequence is determined as c init = ⌊ n s, n SCID 2 / 2 ⌋ + 1 ⋅ 2 X n SCID 2 + 1 ⋅ 2 16 + n SCID, where: n SCID is determined by the legacy 3-bit field of the control information and takes values between 0 and 1, n SCID 2 is determined by the information field of the control information and takes values among integers in a range of [0, N-1], N=2^(bit size), and n s,nSCID 2 is determined based on the subframe offset value, and wherein one pair of the pairs of the parameters is determined based on the n SCID 2. n SCID is determined by the legacy 3-bit field of the control information and takes values between 0 and 1, n SCID 2 is determined by the information field of the control information and takes values among integers in a range of [0, N-1], N=2^(bit size), and n s,nSCID 2 is determined based on the subframe offset value, and wherein one pair of the pairs of the parameters is determined based on the n SCID 2.
A process for preparing a soft cheesecake mixture, comprising the following steps: - placing the ingredients for preparing the soft mixture in a pre-mixing member; - carrying out a step of pre-mixing the aforesaid ingredients so as to blend them together to obtain a pre-mixed mixture having a density comprised between 0.72 g/mL and 0.84 g/mL; - transferring the pre-mixed mixture into a collection tank whose temperature is maintained at a value comprised between 25 °C and 40 °C; - continuously transferring a part of the pre-mixed mixture present in the collection tank towards a homogenising member; - carrying out a step of homogenising the pre-mixed mixture by means of said homogenising member, whose temperature is maintained at a value comprised between 25 °C and 40 °C so as to obtain an emulsified mixture having a density comprised between 0.81 g/mL and 0.92 g/mL; said homogenising member comprising a rotor rotating relative to a stator, between which there is defined a mixing chamber that extends along a longitudinal axis configured in such a way as to create a feed path of the mixture that has a serpentine or zig-zag configuration, wherein said process comprises the further step of transferring the emulsified mixture towards a deaerator member configured to further reduce any air incorporated during the homogenisation step so as to obtain a mixture having a density comprised between 0.90 g/mL and 0.97 g/mL. - placing the ingredients for preparing the soft mixture in a pre-mixing member; - carrying out a step of pre-mixing the aforesaid ingredients so as to blend them together to obtain a pre-mixed mixture having a density comprised between 0.72 g/mL and 0.84 g/mL; - transferring the pre-mixed mixture into a collection tank whose temperature is maintained at a value comprised between 25 °C and 40 °C; - continuously transferring a part of the pre-mixed mixture present in the collection tank towards a homogenising member; - carrying out a step of homogenising the pre-mixed mixture by means of said homogenising member, whose temperature is maintained at a value comprised between 25 °C and 40 °C so as to obtain an emulsified mixture having a density comprised between 0.81 g/mL and 0.92 g/mL; said homogenising member comprising a rotor rotating relative to a stator, between which there is defined a mixing chamber that extends along a longitudinal axis configured in such a way as to create a feed path of the mixture that has a serpentine or zig-zag configuration,
A programmable power converter comprising: at least three data interfaces (230, 240, 250) including a digital data serial interface, a digital data parallel interface, and an analog data interface; a control unit connected to said at least three data interfaces (230, 240, 250) and adapted to determine an output voltage based upon a set of programming voltage data received from at least one of said at least three data interfaces (230, 240, 250); and an output voltage builder adapted to produce said output voltage. at least three data interfaces (230, 240, 250) including a digital data serial interface, a digital data parallel interface, and an analog data interface; a control unit connected to said at least three data interfaces (230, 240, 250) and adapted to determine an output voltage based upon a set of programming voltage data received from at least one of said at least three data interfaces (230, 240, 250); and an output voltage builder adapted to produce said output voltage.
Vehicle transmissions, the vehicle transmissions being of modular construction and having a substantially structurally identical actuation system, the actuation system being provided in a first design of the vehicle transmission for actuating a parking lock and in a second design of the vehicle transmission for actuating a functional unit which is different from the parking lock, in particular a clutch, the actuation system being arranged relative to at least one predefined component of the vehicle transmission in the case of the first vehicle transmission and in the same position in the case of the second vehicle transmission.
An insulating coating material having an adhesion layer on at least one side of a polyimide film, wherein the polyimide film has a weight of 23.5 g or less per 1 m 2 and a loop stiffness value of 0.45 g/cm or more, wherein the polyimide film is obtained by polymerizing an acid dianhydride component and a diamine component, the acid dianhydride component containing a component (a): 80 mol% - 100 mol% of 2,2',3,3'-biphenyl-tetracarboxylic acid dianhydride and/or 3,3',4,4'-biphenyl-tetracarboxylic acid dianhydride in the entire acid dianhydride component, and a component (b): 0 mol% - 20 mol% of other acid dianhydride components, and the diamine component containing 90 mol% or more of p-phenylenediamine in the entire diamine component.
An optical fibre network comprising an optical fibre network section, a plurality of distribution nodes linking the optical fibre network section to a plurality of customer premises units via a plurality of electrical wired segments, each distribution node being electrically powered by at least one of the customer premises units, wherein the optical fibre network further includes a routing function and a network management system in a network core of the optical fibre network, the optical fibre network characterised by further comprising: J a plurality of proxy management units, each in communication with the network management system in the network core of the optical fibre network and each in communication with a distribution node of the plurality of distribution nodes via the routing function and each operable to receive management data from said distribution node, store the received management data, and to process requests regarding the status of said distribution node by responding with the stored management data, wherein each proxy management unit is able to process said requests regardless of the power status of said distribution node, wherein there is a one-to-one mapping between each of the plurality of proxy management units and each of the plurality of distribution nodes, wherein the optical fibre network further comprises a proxy management unit aggregator, the proxy management unit aggregator connected to the routing function and operable to receive management data relating to each distribution node, aggregate the management data relating to each distribution node, and to process requests from the network management system in the network core of the optical fibre network by responding with the aggregated management data relating to each distribution node.
Lamp with a spiral-wound filament, which has a spiral-wound filament body and at least one spiral-wound filament end, and a welding aid for securing the at least one spiral-wound filament end to a current-conducting mount, the welding aid being arranged at a distance (d) from the spiral-wound filament body, characterized in that the distance (d) is fixed depending on a power at which the spiral-wound filament is operated, wherein the distance (d) and the power satisfy the relationship 0.018 ≤ d/P ≤ 0.06 mm/W.
An induction heating method comprising: providing a plurality of induction heating apparatuses each having a heating coil, a first power source configured to adjust the ratio of a high frequency output time and a low frequency output time with respect to an output period and to output a high-frequency electric power and a low frequency electric power, a second power source configured to output an electric power of a frequency that is different from the frequency of the electric power output from the first power source, and a switching section; operating the switching section from one of the induction heating apparatuses to select one of a first mode, a second mode, a third mode, and a fourth mode; and induction heating a workpiece arranged on said one of the induction heating apparatuses, wherein, in the first mode, said one of the induction heating apparatuses receives one of the high-frequency electric power and the low frequency electric power from the first power source, wherein, in the second mode, said one of the induction heating apparatuses receives the electric power from the second power source, wherein, in the third mode, said one of the induction heating apparatuses receives electric power of different frequencies from the first power source by a time-division method; and wherein, in the fourth mode, said one of the induction heating apparatuses receives one of the high-frequency electric power and the low frequency electric power from the first power source and the electric power from the second power source in a superimposed manner. providing a plurality of induction heating apparatuses each having a heating coil, a first power source configured to adjust the ratio of a high frequency output time and a low frequency output time with respect to an output period and to output a high-frequency electric power and a low frequency electric power, a second power source configured to output an electric power of a frequency that is different from the frequency of the electric power output from the first power source, and a switching section; operating the switching section from one of the induction heating apparatuses to select one of a first mode, a second mode, a third mode, and a fourth mode; and induction heating a workpiece arranged on said one of the induction heating apparatuses, wherein, in the first mode, said one of the induction heating apparatuses receives one of the high-frequency electric power and the low frequency electric power from the first power source, wherein, in the second mode, said one of the induction heating apparatuses receives the electric power from the second power source, wherein, in the third mode, said one of the induction heating apparatuses receives electric power of different frequencies from the first power source by a time-division method; and wherein, in the fourth mode, said one of the induction heating apparatuses receives one of the high-frequency electric power and the low frequency electric power from the first power source and the electric power from the second power source in a superimposed manner.