mhurhangee/patent-ind-claim-en huggingface dataset:
A method comprising: hardware logic receiving a first latency tolerance report "LTR" corresponding to an intellectual property "IP" core; the hardware logic receiving a second LTR corresponding to the IP core, the second LTR having a lower latency tolerance than the first LTR; in response to receiving the second LTR, the hardware logic beginning a predetermined timed session having a start time and an end time; the hardware logic determining a firmware has completed processing the second LTR before occurrence of the end time; in response to determining the firmware has completed processing the second LTR before occurrence of the end time, the hardware logic increasing a latency state corresponding to a resource; the hardware logic receiving a third LTR corresponding to the IP core, the third LTR having a lower latency tolerance than the first LTR; in response to receiving the third LTR, the hardware logic beginning an additional predetermined timed session having an additional start time and an additional end time; the hardware logic determining the firmware has not completed processing the third LTR before occurrence of the additional end time; in response to determining the firmware has not completed processing the third LTR before occurrence of the additional end time, the hardware logic decreasing the latency state corresponding to the resource. hardware logic receiving a first latency tolerance report "LTR" corresponding to an intellectual property "IP" core; the hardware logic receiving a second LTR corresponding to the IP core, the second LTR having a lower latency tolerance than the first LTR; in response to receiving the second LTR, the hardware logic beginning a predetermined timed session having a start time and an end time; the hardware logic determining a firmware has completed processing the second LTR before occurrence of the end time; in response to determining the firmware has completed processing the second LTR before occurrence of the end time, the hardware logic increasing a latency state corresponding to a resource; the hardware logic receiving a third LTR corresponding to the IP core, the third LTR having a lower latency tolerance than the first LTR; in response to receiving the third LTR, the hardware logic beginning an additional predetermined timed session having an additional start time and an additional end time; the hardware logic determining the firmware has not completed processing the third LTR before occurrence of the additional end time; in response to determining the firmware has not completed processing the third LTR before occurrence of the additional end time, the hardware logic decreasing the latency state corresponding to the resource.
A turbine vane of a turbomachine such as a turbojet engine, for being mounted about an axis of rotation (AX) on a rotor disc rotating about an axis of rotation (AX), comprising a root (P) for mounting thereof in a cell of the disc, and a hollow blade extending from the root (P) in a radial spanwise direction (EV) and terminating in a top (S) forming a bathtub (B), the blade comprising a lower surface wall and an upper surface wall , as well as a leading edge , a trailing edge and a top wall delimiting a bottom of the bathtub (B), and by means of which the lower surface wall is connected to the upper surface wall , this blade also comprising : - a paper clip-type median circuit , including a first radial duct collecting air at the root (P) and which is connected through a first bend to a second radial duct which is connected through a second bend to a third radial duct ; - an under-bathtub cavity located on the side of the lower surface wall and the top wall and which extends from a central region of the top (S) to the trailing edge ; - a central radial duct located on the side of the lower surface wall and which collects air at the root (P) and extends between at least two of the three ducts of the median circuit and directly feeds the under-bathtub cavity . - a paper clip-type median circuit , including a first radial duct collecting air at the root (P) and which is connected through a first bend to a second radial duct which is connected through a second bend to a third radial duct ; - an under-bathtub cavity located on the side of the lower surface wall and the top wall and which extends from a central region of the top (S) to the trailing edge ; - a central radial duct located on the side of the lower surface wall and which collects air at the root (P) and extends between at least two of the three ducts of the median circuit and directly feeds the under-bathtub cavity .
Method carried out by a computer terminal for assisting a user in setting a mechanism of a mechanical timepiece comprising at least one function and a display of a value related to this function, the method comprising the following steps: - capturing an image or a sequence of images of the mechanical timepiece by means of the computer terminal comprising an image acquisition device and a display area ; - determining the setting to be made to the mechanism of this function according to said image or sequence of images, and - displaying on the display area of the computer terminal a sequence of instructions to be performed by the user on the timepiece for said setting of said mechanism. - capturing an image or a sequence of images of the mechanical timepiece by means of the computer terminal comprising an image acquisition device and a display area ; - determining the setting to be made to the mechanism of this function according to said image or sequence of images, and - displaying on the display area of the computer terminal a sequence of instructions to be performed by the user on the timepiece for said setting of said mechanism.
A breaking device for interrupting current, the breaking device comprising: - an electrically conducting outer member ; - an electrically conducting inner member arranged radially inside the outer member with respect to a breaking axis ; and - an electrically insulating or semiconducting breaking member arranged radially between the outer member and the inner member with respect to the breaking axis , the breaking member being arranged to move along the breaking axis from a starting position to a protruding position in which the breaking member protrudes from a space within the outer member for interrupting a current between the outer member and the inner member by means of the breaking member ; characterised by - the breaking member comprising a first tubular element comprising a first insulating material and a second insulating material, where the first insulating material has a higher wear resistance than the second insulating material. - an electrically conducting outer member ; - an electrically conducting inner member arranged radially inside the outer member with respect to a breaking axis ; and - an electrically insulating or semiconducting breaking member arranged radially between the outer member and the inner member with respect to the breaking axis , the breaking member being arranged to move along the breaking axis from a starting position to a protruding position in which the breaking member protrudes from a space within the outer member for interrupting a current between the outer member and the inner member by means of the breaking member ; characterised by - the breaking member comprising a first tubular element comprising a first insulating material and a second insulating material, where the first insulating material has a higher wear resistance than the second insulating material.
A method, comprising: Determining , at a first device , a 2L × M matrix W̃ 2 comprising linear combination coefficients for a pre-coder matrix indicator, PMI, matrix, wherein the matrix W̃ 2 has 2L spatial components and M frequency components; determining a shifted matrix by shifting the frequency components of matrix W̃ 2 circularly, such that a maximum coefficient of matrix W̃ 2 is located in a frequency component with a predetermined index; generating a strongest coefficient indicator with log 2 2 L bits, indicating the index of the spatial component associated with the maximum coefficient of matrix W̃ 2 ; and transmitting , to a second device , uplink control information comprising the strongest coefficient indicator and locations and complex values of non-zero linear combination coefficients of the shifted matrix, wherein the non-zero linear combination coefficients are scaled by the maximum coefficient, wherein the transmitted complex values of the non-zero linear combination coefficients exclude the maximum coefficient. Determining , at a first device , a 2L × M matrix W̃ 2 comprising linear combination coefficients for a pre-coder matrix indicator, PMI, matrix, wherein the matrix W̃ 2 has 2L spatial components and M frequency components; determining a shifted matrix by shifting the frequency components of matrix W̃ 2 circularly, such that a maximum coefficient of matrix W̃ 2 is located in a frequency component with a predetermined index; generating a strongest coefficient indicator with log 2 2 L bits, indicating the index of the spatial component associated with the maximum coefficient of matrix W̃ 2 ; and transmitting , to a second device , uplink control information comprising the strongest coefficient indicator and locations and complex values of non-zero linear combination coefficients of the shifted matrix, wherein the non-zero linear combination coefficients are scaled by the maximum coefficient, wherein the transmitted complex values of the non-zero linear combination coefficients exclude the maximum coefficient.
A process for the production of a composite material from textile waste derived from clothing and polyethylene film waste, the method comprising the following steps: a) comminuting the textile waste derived from clothing into the fraction up to 15 mm in size, b) comminuting the polyethylene film into the fraction up to 15 mm in size, c) separating metal parts from the comminuted textiles, d) separating metal parts and unwanted plastics from the comminuted film, e) further comminuting textiles into the fraction up to 5 mm in size, f) mixing the comminuted textiles with the comminuted film, said textiles constituting 10-50% of the mixture, g) plasticizing, homogenizing and extruding the obtained mixture in an extruder at the temperature of 170-240°C and under the pressure of 8-15 MPa. a) comminuting the textile waste derived from clothing into the fraction up to 15 mm in size, b) comminuting the polyethylene film into the fraction up to 15 mm in size, c) separating metal parts from the comminuted textiles, d) separating metal parts and unwanted plastics from the comminuted film, e) further comminuting textiles into the fraction up to 5 mm in size, f) mixing the comminuted textiles with the comminuted film, said textiles constituting 10-50% of the mixture, g) plasticizing, homogenizing and extruding the obtained mixture in an extruder at the temperature of 170-240°C and under the pressure of 8-15 MPa.
A method of making a vitreous bond abrasive article , the method comprising sequential steps: a) a subprocess comprising sequentially: i) depositing a layer of loose powder particles in a confined region , wherein the loose powder particles comprise vitreous bond precursor particles, abrasive particles, and organic compound particles, and wherein the layer of loose powder particles has substantially uniform thickness; and ii) selectively applying heat via conduction or irradiation, to heat treat an area of the layer of loose powder particles ; b) independently carrying out step a) a plurality of times to generate an abrasive article preform comprising the bonded powder particles and remaining loose powder particles, wherein in each step a), the loose powder particles are independently selected; c) separating substantially all of the remaining loose powder particles from the abrasive article preform; and d) heating the abrasive article preform to provide the vitreous bond abrasive article comprising the abrasive particles retained in a vitreous bond material wherein step d) further comprises burning out the organic compound material. a) a subprocess comprising sequentially: i) depositing a layer of loose powder particles in a confined region , wherein the loose powder particles comprise vitreous bond precursor particles, abrasive particles, and organic compound particles, and wherein the layer of loose powder particles has substantially uniform thickness; and ii) selectively applying heat via conduction or irradiation, to heat treat an area of the layer of loose powder particles ; i) depositing a layer of loose powder particles in a confined region , wherein the loose powder particles comprise vitreous bond precursor particles, abrasive particles, and organic compound particles, and wherein the layer of loose powder particles has substantially uniform thickness; and ii) selectively applying heat via conduction or irradiation, to heat treat an area of the layer of loose powder particles ; b) independently carrying out step a) a plurality of times to generate an abrasive article preform comprising the bonded powder particles and remaining loose powder particles, wherein in each step a), the loose powder particles are independently selected; c) separating substantially all of the remaining loose powder particles from the abrasive article preform; and d) heating the abrasive article preform to provide the vitreous bond abrasive article comprising the abrasive particles retained in a vitreous bond material wherein step d) further comprises burning out the organic compound material.
A water slide comprising: a ladder section including a plurality of steps ; a chute including a runway surface with an exit segment , the chute rotatably coupled to the ladder section, wherein the chute is movable between a first position and a second position relative to the ladder section; and a brace having a first portion coupled to the ladder section and a second portion coupled to the chute, the brace extending between the ladder section and the chute to lock the chute when in the second position, the water slide characterized in that the ladder section further includes one of a first panel or a platform extending from an upper portion thereof, a first pair of arms offset from one another, and a water tank configured for receiving water to stabilize the water slide, wherein the ladder section, the one of the first panel or platform, the water tank, and the first pair of arms are formed as a first unitary structural member, and further characterized in that the chute includes the other of the first panel or the platform extending from an upper portion thereof, and a second pair of arms offset from one another, wherein the chute, the other of the first panel or platform, and the second pair of arms are formed as a second unitary structural member. a ladder section including a plurality of steps ; a chute including a runway surface with an exit segment , the chute rotatably coupled to the ladder section, wherein the chute is movable between a first position and a second position relative to the ladder section; and a brace having a first portion coupled to the ladder section and a second portion coupled to the chute, the brace extending between the ladder section and the chute to lock the chute when in the second position, the water slide characterized in that the ladder section further includes one of a first panel or a platform extending from an upper portion thereof, a first pair of arms offset from one another, and a water tank configured for receiving water to stabilize the water slide, wherein the ladder section, the one of the first panel or platform, the water tank, and the first pair of arms are formed as a first unitary structural member, and further characterized in that the chute includes the other of the first panel or the platform extending from an upper portion thereof, and a second pair of arms offset from one another, wherein the chute, the other of the first panel or platform, and the second pair of arms are formed as a second unitary structural member.
A method for analog to digital conversion, comprising: converting an analog input to a variable pulse , applying the variable pulse to a plurality of probabilistic memory elements as a switching pulse capable of switching the state of at least one probabilistic memory element, wherein the plurality of memory elements are initialized with a first value, and wherein the plurality of memory elements are nano-scale memory elements whose switching is a probabilistic function of an applied current or voltage; and determining a digital value based on a number of memory elements that store a second value after the switching pulse is applied. converting an analog input to a variable pulse , applying the variable pulse to a plurality of probabilistic memory elements as a switching pulse capable of switching the state of at least one probabilistic memory element, wherein the plurality of memory elements are initialized with a first value, and wherein the plurality of memory elements are nano-scale memory elements whose switching is a probabilistic function of an applied current or voltage; and determining a digital value based on a number of memory elements that store a second value after the switching pulse is applied.
An electroconductive roll comprising: a core member , a rubber base material disposed around the core member , and a surface layer disposed around the rubber base material , characterised in that an arithmetic mean peak curvature S pc of a surface of the surface layer being equal to or greater than 1,880 (1/mm) and being equal to or less than 14,024 (1/mm). a core member , a rubber base material disposed around the core member , and a surface layer disposed around the rubber base material , characterised in that an arithmetic mean peak curvature S pc of a surface of the surface layer being equal to or greater than 1,880 (1/mm) and being equal to or less than 14,024 (1/mm).
A process for applying a polar composition or an aqueous composition on a hydrophobic surface that comprises the following steps : (E1) the surface is contacted at least on certain zones with a primary coating composition that comprises a cationic polysaccharide, wherein the cationic polysaccharide is a cationic guar, and wherein the composition is free of ionic surfactant, whereby a coating based on said cationic polysaccharide is obtained on said zones of the surfaces; (E2) the polar or aqueous composition is applied on all or part of the zones of the surface covered by the cationic polysaccharide, as obtained in step (E1); wherein the hydrophobic surface is a surface that, before applying the cationic polysaccharide, is not anionic and/or is not an oxidized plastic and/or is not a surface treated by an activation treatment such as corona or plasma. (E1) the surface is contacted at least on certain zones with a primary coating composition that comprises a cationic polysaccharide, wherein the cationic polysaccharide is a cationic guar, and wherein the composition is free of ionic surfactant, whereby a coating based on said cationic polysaccharide is obtained on said zones of the surfaces; (E2) the polar or aqueous composition is applied on all or part of the zones of the surface covered by the cationic polysaccharide, as obtained in step (E1);
A packet processing method, applied to a software-defined networking, SDN, controller, wherein the method comprises: receiving a first packet sent by a first switch, wherein the first packet belongs to a service flow that flows from a first device to a second device, wherein the service flow includes a series of packets; determining a service chain through which the service flow passes; determining , at the SDN controller, a forwarding path of the service flow according to the service chain through which the service flow passes, wherein the forwarding path comprises one or more service nodes in the service chain; modifying , at the SDN controller, the first packet to obtain a second packet, wherein the second packet belongs to the service flow, and a valid payload of the second packet comprises a valid payload of the first packet and forwarding path indication information; generating a first flow table according to the forwarding path of the service flow, and sending the first flow table to the first switch; and sending the second packet to the first switch, so that the first switch forwards the second packet according to the first flow table. receiving a first packet sent by a first switch, wherein the first packet belongs to a service flow that flows from a first device to a second device, wherein the service flow includes a series of packets; determining a service chain through which the service flow passes; determining , at the SDN controller, a forwarding path of the service flow according to the service chain through which the service flow passes, wherein the forwarding path comprises one or more service nodes in the service chain; modifying , at the SDN controller, the first packet to obtain a second packet, wherein the second packet belongs to the service flow, and a valid payload of the second packet comprises a valid payload of the first packet and forwarding path indication information; generating a first flow table according to the forwarding path of the service flow, and sending the first flow table to the first switch; and sending the second packet to the first switch, so that the first switch forwards the second packet according to the first flow table.
A device for modulating a microwave signal (P(t)), comprising at least: - a circuit for generating a rectified sinusoidal signal ; - a phase shifting circuit capable of receiving said microwave signal as input and comprising: o a first channel applying a given phase shift ; o a second channel applying said given phase shift enhanced by π ; - a variable gain amplifier , the gain of which is controlled by said rectified sinusoidal signal; - a switch controlled by said rectified sinusoidal signal, capable of alternately switching said first channel and said second channel at the input of said amplifier, the switching from one channel to the other being carried out upon each transition to 0 of said rectified sinusoidal signal, the output signal (s(t)) of said amplifier being the modulated microwave signal. - a circuit for generating a rectified sinusoidal signal ; - a phase shifting circuit capable of receiving said microwave signal as input and comprising: o a first channel applying a given phase shift ; o a second channel applying said given phase shift enhanced by π ; o a first channel applying a given phase shift ; o a second channel applying said given phase shift enhanced by π ; - a variable gain amplifier , the gain of which is controlled by said rectified sinusoidal signal; - a switch controlled by said rectified sinusoidal signal, capable of alternately switching said first channel and said second channel at the input of said amplifier, the switching from one channel to the other being carried out upon each transition to 0 of said rectified sinusoidal signal, the output signal (s(t)) of said amplifier being the modulated microwave signal.