mhurhangee/patent-ind-claim-en huggingface dataset:
A tire tread block in a tire, comprising a tire sipe having a depth D1; a radially outer sipe taper portion having a depth D2, a radially outer sipe width W1 and a radially outer sipe transition width W2 , wherein the radially outer sipe width W1 is greater than the radially outer sipe transition width W2 ; and a sipe radially central portion having a plurality of individual sipe radially angled portions oriented in a zig-zag pattern, wherein the sipe radially central portion is oriented radially inwardly of the radially outer sipe taper portion , characterized in that each of the sipe radially angled portions is oriented at an angle A1 relative to a circumferential direction of the tire, wherein the angle A1 is between about 36 degrees and about 54 degrees. a depth D1; a radially outer sipe taper portion having a depth D2, a radially outer sipe width W1 and a radially outer sipe transition width W2 , wherein the radially outer sipe width W1 is greater than the radially outer sipe transition width W2 ; and a sipe radially central portion having a plurality of individual sipe radially angled portions oriented in a zig-zag pattern, wherein the sipe radially central portion is oriented radially inwardly of the radially outer sipe taper portion ,
A chemical-mechanical planarization composition useful for processing dielectric material, the composition comprising: liquid carrier; cationically-charged abrasive particles dispersed in the liquid carrier consisting essentially of cationically-charged ceria particles, zirconia particles or a combination of these and containing no more than 0.5 weight percent of abrasive particles other than ceria based and zirconia based particles, based on total weight of abrasive particles dispersed in the liquid carrier; cyclodextrin selected from alpha-, beta-, gamma-cyclodextrin, or a combination thereof; and alkylamine compound or N-lauroylsarcosine comprising an amine group attached to an alkyl group capable of forming a complex with the cyclodextrin in the slurry; wherein the composition has a pH below 7 and the amine group exhibits a cationic charge in the slurry. liquid carrier; cationically-charged abrasive particles dispersed in the liquid carrier consisting essentially of cationically-charged ceria particles, zirconia particles or a combination of these and containing no more than 0.5 weight percent of abrasive particles other than ceria based and zirconia based particles, based on total weight of abrasive particles dispersed in the liquid carrier; cyclodextrin selected from alpha-, beta-, gamma-cyclodextrin, or a combination thereof; and alkylamine compound or N-lauroylsarcosine comprising an amine group attached to an alkyl group capable of forming a complex with the cyclodextrin in the slurry; wherein the composition has a pH below 7 and the amine group exhibits a cationic charge in the slurry.
A method performed by one or more computers, the method comprising: obtaining an input sequence, the input sequence comprising a sequence of words in a first language; processing the input sequence using a first long short term memory (LSTM) neural network to convert the input sequence into an alternative representation for the input sequence; and processing the alternative representation for the input sequence using a second LSTM neural network to generate a target sequence for the input sequence, the target sequence comprising a plurality of outputs arranged according to an output order, the plurality of outputs providing a translation of the sequence of words into a second language; wherein processing the alternative representation for the input sequence using the second LSTM neural network comprises: processing the alternative representation using the second LSTM neural network only once by initializing a hidden state of the second LSTM neural network to the alternative representation for the input sequence; and updating the hidden state based upon a selected candidate output and the current hidden state. obtaining an input sequence, the input sequence comprising a sequence of words in a first language; processing the input sequence using a first long short term memory (LSTM) neural network to convert the input sequence into an alternative representation for the input sequence; and processing the alternative representation for the input sequence using a second LSTM neural network to generate a target sequence for the input sequence, the target sequence comprising a plurality of outputs arranged according to an output order, the plurality of outputs providing a translation of the sequence of words into a second language; processing the alternative representation using the second LSTM neural network only once by initializing a hidden state of the second LSTM neural network to the alternative representation for the input sequence; and updating the hidden state based upon a selected candidate output and the current hidden state.
A bicomponent filament comprising: a first region comprising an ethylene-based polymer; a second region comprising a propylene-based polymer; and a compatibilizer comprising a crystalline block composite having a crystalline ethylene-based polymer a crystalline alpha-olefin-based polymer, and a block copolymer having a crystalline ethylene block and a crystalline alpha-olefin block, wherein the crystalline ethylene block is essentially the same composition as the crystalline ethylene-based polymer and the crystalline alpha-olefin block is essentially the same composition as the crystalline alpha-olefin-based polymer; wherein the compatibilizer is present in at least one of the first region or the second region. a first region comprising an ethylene-based polymer; a second region comprising a propylene-based polymer; and a compatibilizer comprising a crystalline block composite having a crystalline ethylene-based polymer a crystalline alpha-olefin-based polymer, and a block copolymer having a crystalline ethylene block and a crystalline alpha-olefin block, wherein the crystalline ethylene block is essentially the same composition as the crystalline ethylene-based polymer and the crystalline alpha-olefin block is essentially the same composition as the crystalline alpha-olefin-based polymer; wherein the compatibilizer is present in at least one of the first region or the second region.
Device for detecting the state of connection between a patient catheter and a tubing cassette system, which is designed for use in a dialysis machine , characterised in that the device comprises the tubing cassette system and an electrical circuit that is arranged on the tubing cassette system and on the patient catheter , and in that the device further comprises a measuring device for measuring at least one electrical property of the electrical circuit, which depends on the state of connection, in that the circuit comprises a diode resistive network arranged on the patient catheter , in that the tubing cassette system comprises a patient connector provided with a diode resistive network and a switch (S1, S2) arranged in parallel, and in that the measuring device is designed to measure the resistivity of the diode resistive network of the patient catheter and the resistivity of the diode resistive network of the patient connector .
A glass frit including SiO 2 , B 2 O 3 , ZnO, an I-group oxide, and further including NaF, wherein the SiO 2 is included by 15 wt% to 50 wt% of the entire glass frit, the B 2 O 3 is included by 10 wt% to 30 wt% of the entire glass frit, the ZnO is included by 5 wt% to 35 wt% of the entire glass frit, the I-group oxide is included by 10 wt% to 30 wt% of the entire glass frit, and includes Li 2 O, Na 2 O and K 2 O, the NaF is included by 1 wt% to 5 wt% of the entire glass frit, wherein the glass frit further includes Al 2 O 3 , ZrO 2 , and TiO 2 , and wherein the Al 2 O 3 , ZrO 2 , and TiO 2 is included by 0.1 wt% to 5 wt% of the entire glass frit. wherein the SiO 2 is included by 15 wt% to 50 wt% of the entire glass frit, the B 2 O 3 is included by 10 wt% to 30 wt% of the entire glass frit, the ZnO is included by 5 wt% to 35 wt% of the entire glass frit, the I-group oxide is included by 10 wt% to 30 wt% of the entire glass frit, and includes Li 2 O, Na 2 O and K 2 O, the NaF is included by 1 wt% to 5 wt% of the entire glass frit, wherein the glass frit further includes Al 2 O 3 , ZrO 2 , and TiO 2 , and wherein the Al 2 O 3 , ZrO 2 , and TiO 2 is included by 0.1 wt% to 5 wt% of the entire glass frit.
Plant pot (100; 200; 300) with modular structure for growing plants, comprising: - a side (P) that laterally defines a compartment (V) containing the soil for growing the plants; - at least two panels for obtaining said side (P), which are removably joined; - coupling/uncoupling means to couple and uncouple said at least two panels , wherein each panel has two vertical ending edges ; said coupling/uncoupling means being provided in correspondence of the vertical ending edges of said panels. the coupling/uncoupling means comprise first coupling means coupled with second coupling means ; said first coupling means being provided on a vertical ending edge of a panel and said second coupling means being provided on a vertical ending edge of an additional panel in adjacent position to the first one; the first coupling means comprise a rod and the second coupling means comprise a housing that receives the rod ; characterized in that each rod of the first coupling means comprises a hole in lower position; the plant pot comprising a base platform (3; 3'; 303) coupled with said panels of the side (P) to define said compartment (V) on the bottom; said base platform (3; 3'; 303) comprising vertical pins in upper perimetral position that protrude upwards and are engaged in said holes of the rods . - a side (P) that laterally defines a compartment (V) containing the soil for growing the plants; - at least two panels for obtaining said side (P), which are removably joined; - coupling/uncoupling means to couple and uncouple said at least two panels , wherein each panel has two vertical ending edges ; said coupling/uncoupling means being provided in correspondence of the vertical ending edges of said panels. the coupling/uncoupling means comprise first coupling means coupled with second coupling means ; said first coupling means being provided on a vertical ending edge of a panel and said second coupling means being provided on a vertical ending edge of an additional panel in adjacent position to the first one; the first coupling means comprise a rod and the second coupling means comprise a housing that receives the rod ; characterized in that each rod of the first coupling means comprises a hole in lower position; the plant pot comprising a base platform (3; 3'; 303) coupled with said panels of the side (P) to define said compartment (V) on the bottom; said base platform (3; 3'; 303) comprising vertical pins in upper perimetral position that protrude upwards and are engaged in said holes of the rods .
A method for reconstructing an image of an object based on received signals and prior knowledge signals using ultrasonic equipment, the method comprising: removing information within the received signals, that are contained by the received signals and the prior knowledge signals to obtain a residual signal ΔX; and reconstructing an image Δf of the object based on the residual signal wherein the reconstructing is performed based on the following formula: arg min Δ f g Δ X , ForwardModel A , Δ f + λ ⋅ h Δ f , wherein Forward Model ( A,Δf ) is a function that simulates the measured signal we would obtain if we excited a volume described by the image Δf with the excitation signal described by A, the function g X 1 , X 2 ∈ R quantifies the difference between the two measured signals X 1 and X 2 , and the function h Δ f ∈ R + quantifies the sparsity of the residual image Δf ; wherein prior knowledge comprises signals belonging to one or more measurements of a reference object, signals belonging to one or more measurements of the object to be reconstructed and serving as reference, to one or more images of a reference object, to one or more images of a set of reference objects and/or to one or more simulated images of a reference object. removing information within the received signals, that are contained by the received signals and the prior knowledge signals to obtain a residual signal ΔX; and reconstructing an image Δf of the object based on the residual signal wherein the reconstructing is performed based on the following formula: arg min Δ f g Δ X , ForwardModel A , Δ f + λ ⋅ h Δ f , wherein Forward Model ( A,Δf ) is a function that simulates the measured signal we would obtain if we excited a volume described by the image Δf with the excitation signal described by A, the function g X 1 , X 2 ∈ R quantifies the difference between the two measured signals X 1 and X 2 , and the function h Δ f ∈ R + quantifies the sparsity of the residual image Δf ; wherein prior knowledge comprises signals belonging to one or more measurements of a reference object, signals belonging to one or more measurements of the object to be reconstructed and serving as reference, to one or more images of a reference object, to one or more images of a set of reference objects and/or to one or more simulated images of a reference object.
A water and seafood flow distributor arrangement for routing said water and seafood from a first location to a selected one of a plurality of second locations, said flow distributor arrangement comprising: a first pipe and a second bent pipe , and a mass mover, said first and second pipes being in communication with one another at a first respective end via said mass mover, said second bent pipe being rotatable about an axis of said first end , said rotation displacing a second end of said second bent pipe along a circle ; said flow distributor arrangement further comprising at least one first conduit being in communication with said first location, and a plurality of second conduits being in communication with a respective one of said second plurality of locations, said second conduits having respective ends that are arranged along said circle described by said second end of said second bent pipe , said second bent pipe being connectable to a respective selected one of said second conduits when said second end of said second bent pipe is aligned with a selected second conduit end, characterized in that said mass mover is a pump of the coil pump type, having at least one conduit extending in a helical shape from an inlet to an outlet end.
A fluid flow control device, comprising: a valve assembly comprising: a valve housing and a movable valve element ; an actuator assembly comprising: an actuator housing, and a movable actuator element; a mechanical connection that connects the movable actuator element to the movable valve element; and characterised by further comprising a cooling ring positioned between a first surface of the valve housing and between a first surface of the actuator housing, the cooling ring comprising a cooling channel containing cooling fluid, wherein an actuator side of the valve housing comprises a cavity , the cavity comprising a bottom wall and side walls, wherein the cooling ring is seated adjacent to the cavity bottom wall and at least partially within the cavity side walls. a valve assembly comprising: a valve housing and a movable valve element ; a valve housing and a movable valve element ; an actuator assembly comprising: an actuator housing, and a movable actuator element; an actuator housing, and a movable actuator element; a mechanical connection that connects the movable actuator element to the movable valve element; and characterised by further comprising a cooling ring positioned between a first surface of the valve housing and between a first surface of the actuator housing, the cooling ring comprising a cooling channel containing cooling fluid, wherein an actuator side of the valve housing comprises a cavity , the cavity comprising a bottom wall and side walls, wherein the cooling ring is seated adjacent to the cavity bottom wall and at least partially within the cavity side walls. characterised by further comprising a cooling ring positioned between a first surface of the valve housing and between a first surface of the actuator housing, the cooling ring comprising a cooling channel containing cooling fluid, wherein an actuator side of the valve housing comprises a cavity , the cavity comprising a bottom wall and side walls, wherein the cooling ring is seated adjacent to the cavity bottom wall and at least partially within the cavity side walls.
A gas turbine engine comprising: a combustor having an inner wall and an outer wall defining the combustor there between, said walls are heated by compressed air discharged from a compressor section, the inner wall and the outer wall each having at least one opening into the combustor ; at least one mobile conduit passing through the combustor from the at least one opening in the outer wall to the at least one opening in the inner wall , a cooling fluid being flowable from the at least one opening in the outer wall through the at least one mobile conduit to the at least one opening in the inner wall ; a first joint and a second joint fluidly connecting the at least one mobile conduit with the at least one opening in the inner wall and the at least one opening in the outer wall , respectively the first joint and the second joint enabling multiple degrees of freedom of the at least one mobile conduit within the combustor ; characterized in that ; the first joint is a floating joint, and the second joint is a gimbal joint attached to an end of the at least one mobile conduit at the outer wall such that an end of the mobile conduit at the inner wall is able to slide with respect to the at least one opening in the inner wall . a combustor having an inner wall and an outer wall defining the combustor there between, said walls are heated by compressed air discharged from a compressor section, the inner wall and the outer wall each having at least one opening into the combustor ; at least one mobile conduit passing through the combustor from the at least one opening in the outer wall to the at least one opening in the inner wall , a cooling fluid being flowable from the at least one opening in the outer wall through the at least one mobile conduit to the at least one opening in the inner wall ; a first joint and a second joint fluidly connecting the at least one mobile conduit with the at least one opening in the inner wall and the at least one opening in the outer wall , respectively the first joint and the second joint enabling multiple degrees of freedom of the at least one mobile conduit within the combustor ; characterized in that ; the first joint is a floating joint, and the second joint is a gimbal joint attached to an end of the at least one mobile conduit at the outer wall such that an end of the mobile conduit at the inner wall is able to slide with respect to the at least one opening in the inner wall .
A device for use in an eNodeB comprising a processing circuitry and a non-transitory computer readable storage device including instructions stored thereon, which when executed by the processing circuitry , cause the eNodeB to: transmit Physical Broadcast Channel, PBCH, data three times within one sub-frame of a frame to a coverage limited MTC user equipment (104A-D) user equipment (104A-D); and repeat transmission of the PBCH data to the coverage limited MTC user equipment (104A-D) in a second transmission; wherein the PBCH data is transmitted in a first transmission in one of sub-frame one, sub-frame two, sub-frame three, sub-frame four, subframe six, sub-frame seven, sub-frame eight, or sub-frame nine of the frame; wherein the PBCH data includes MIB data transmitted a first time in symbols two through five of the sub-frame , and the MIB data transmitted second and third times in symbols six through thirteen of the sub-frame ; and wherein a time difference between the first and second transmission is dependent on a time of day such that the time difference is reduced during a time of day that has a lower average user equipment traffic and is increased during a time of day that has a higher average user equipment traffic. transmit Physical Broadcast Channel, PBCH, data three times within one sub-frame of a frame to a coverage limited MTC user equipment (104A-D) user equipment (104A-D); and repeat transmission of the PBCH data to the coverage limited MTC user equipment (104A-D) in a second transmission; wherein the PBCH data is transmitted in a first transmission in one of sub-frame one, sub-frame two, sub-frame three, sub-frame four, subframe six, sub-frame seven, sub-frame eight, or sub-frame nine of the frame; wherein the PBCH data includes MIB data transmitted a first time in symbols two through five of the sub-frame , and the MIB data transmitted second and third times in symbols six through thirteen of the sub-frame ; and wherein a time difference between the first and second transmission is dependent on a time of day such that the time difference is reduced during a time of day that has a lower average user equipment traffic and is increased during a time of day that has a higher average user equipment traffic.
A method for hybrid classical-quantum communication, the method comprising: transmitting a single photon having a particular quantum state over a communication medium using a quantum mode set, wherein the quantum mode set comprises non-separable modes for quantum communication; and transmitting a classical light beam over the same communication medium using a classical mode set, wherein the classical mode set comprises non-separable modes for classical communication; wherein the classical and quantum mode sets comprise non-separable modes in common. transmitting a single photon having a particular quantum state over a communication medium using a quantum mode set, wherein the quantum mode set comprises non-separable modes for quantum communication; and transmitting a classical light beam over the same communication medium using a classical mode set, wherein the classical mode set comprises non-separable modes for classical communication; wherein the classical and quantum mode sets comprise non-separable modes in common.