mhurhangee/patent-ind-claim-en huggingface dataset:
A method for controlling a Diesel engine system, of the type comprising a particulate filter interposed in the exhaust line of the engine, and an electronic engine control unit (E) for controlling a plurality of fuel injectors associated with the cylinders of the engine, wherein - when an estimated accumulated particulate mass (M acc,i ) in said filter reaches a predetermined threshold (TH1) - a control mode of the injectors is activated, which causes the start of an automatic regeneration step of the filter , by an increase in the temperature of the exhaust gases sent to the filter sufficient to burn the particulate in the filter , said estimated accumulated particulate mass (M acc,i ) being calculated as the sum of estimated instantaneous accumulated particulate masses (m si ) calculated according to a first map based on engine operating conditions (MP,IN), the method being characterized in that , during said regeneration step, it comprises: - receiving values (T6,T5,V,T_env) indicative of the state of the particulate filter , - calculating, as a function of said values indicative of the state of the filter , an actual instantaneous burned particulate mass, - summing (M b,r ) the actual instantaneous burned particulate masses, - calculating a temporary correction factor as a function of said sum (M b,r ) of actual instantaneous burned particulate masses and of said sum (M acc,i ) of estimated instantaneous accumulated particulate masses (m si ), the temporary correction factor being representative of an error between said theoretical value (M acc,i ) and said actual value (M b,r ), - updating at least one correction factor (k), included in a second map, as a function of said temporary correction factor (k tmp ) and engine operating conditions which have occurred during an accumulation step, said method being further characterized in that , during the accumulation step, it comprises multiplying said estimated instantaneous particulate mass (m si ), calculated according to said first map and said engine operating conditions, by a correction factor (k) calculated according to said second map and said engine operating conditions. - receiving values (T6,T5,V,T_env) indicative of the state of the particulate filter , - calculating, as a function of said values indicative of the state of the filter , an actual instantaneous burned particulate mass, - summing (M b,r ) the actual instantaneous burned particulate masses, - calculating a temporary correction factor as a function of said sum (M b,r ) of actual instantaneous burned particulate masses and of said sum (M acc,i ) of estimated instantaneous accumulated particulate masses (m si ), the temporary correction factor being representative of an error between said theoretical value (M acc,i ) and said actual value (M b,r ), - updating at least one correction factor (k), included in a second map, as a function of said temporary correction factor (k tmp ) and engine operating conditions which have occurred during an accumulation step,
A string of pocketed springs for a pocketed spring assembly , said string of pocketed springs comprising: a plurality of interconnected pockets , each of the pockets containing at least one spring encased in fabric, the fabric being joined to itself along a longitudinal seam and having first and second opposed plies of fabric on opposite sides of the springs , the fabric of said first and second plies being joined by transverse seams , wherein said string has outer pockets and inner pockets between the outer pockets , characterized in that the outer pockets are smaller than the inner pockets without springs therein, the inner and outer pockets being approximately the same size (H) with springs therein. a plurality of interconnected pockets , each of the pockets containing at least one spring encased in fabric, the fabric being joined to itself along a longitudinal seam and having first and second opposed plies of fabric on opposite sides of the springs , the fabric of said first and second plies being joined by transverse seams , wherein said string has outer pockets and inner pockets between the outer pockets , characterized in that the outer pockets are smaller than the inner pockets without springs therein, the inner and outer pockets being approximately the same size (H) with springs therein.
Amine oxide of the formula (I) wherein R is a radical of the formula wherein * indicates the binding site and is a bond and indicates that the double bond connected thereto can be either cis or trans in configuration or R is a radical of the formula wherein * indicates the binding site and is a bond and indicates that the double bond connected thereto is cis in configuration. R is a radical of the formula wherein * indicates the binding site and is a bond and indicates that the double bond connected thereto can be either cis or trans in configuration or * indicates the binding site and is a bond and indicates that the double bond connected thereto can be either cis or trans in configuration R is a radical of the formula wherein * indicates the binding site and is a bond and indicates that the double bond connected thereto is cis in configuration. * indicates the binding site and is a bond and indicates that the double bond connected thereto is cis in configuration.
An actuator drive circuit for a liquid discharge apparatus , comprising: a discharge waveform generating circuit (300-304) configured to generate a plurality of drive waveforms to be applied to an actuator , the plurality of drive waveforms corresponding to a plurality of gradation values of gray scale data formed of a plurality of bits; a sleep waveform generating circuit configured to generate a sleep waveform to be applied to the actuator, the sleep waveform causing a voltage of the actuator to transition to a first voltage without liquid discharge from a nozzle associated with the actuator; and a wake waveform generating circuit configured to generate a wake waveform to be applied to the actuator, the wake waveform causing the voltage of the actuator to transition to a second voltage higher than the first voltage without liquid discharge from the nozzle, characterised in that the actuator drive circuit further comprises a signal processing circuit configured to detect a first command and a second command each assigned to a part of the plurality of bits forming the gray scale data, upon detecting the first command, cause the sleep waveform generated by the sleep waveform generating circuit to be applied to a plurality of actuators and upon detecting the second command, cause the wake waveform generated by the wake waveform generating circuit to be applied to a plurality of actuators. a discharge waveform generating circuit (300-304) configured to generate a plurality of drive waveforms to be applied to an actuator , the plurality of drive waveforms corresponding to a plurality of gradation values of gray scale data formed of a plurality of bits; a sleep waveform generating circuit configured to generate a sleep waveform to be applied to the actuator, the sleep waveform causing a voltage of the actuator to transition to a first voltage without liquid discharge from a nozzle associated with the actuator; and a wake waveform generating circuit configured to generate a wake waveform to be applied to the actuator, the wake waveform causing the voltage of the actuator to transition to a second voltage higher than the first voltage without liquid discharge from the nozzle, characterised in that the actuator drive circuit further comprises a signal processing circuit configured to detect a first command and a second command each assigned to a part of the plurality of bits forming the gray scale data, upon detecting the first command, cause the sleep waveform generated by the sleep waveform generating circuit to be applied to a plurality of actuators and upon detecting the second command, cause the wake waveform generated by the wake waveform generating circuit to be applied to a plurality of actuators.
Ironing appliance comprising a base connected by a cord to an iron , the cord containing at least one conduit for conveying a fluid to the iron , the iron comprising a heating body and a fluid connector connected to the conduit for conveying the fluid, said fluid connector being supported by a functional plate which is inserted between the heating body and a casing curling around the heating body , the fluid connector comprising a cavity open at the lower end thereof wherein is engaged a connection tube , characterised in that the connection tube is carried by the heating body and in that the fluid connector comprises a seal which is fixed in the cavity and which is inserted between the inner surface of the cavity and the outer surface of the connection tube .
A primary package (10; 110; 310; 410; 510; 610; 810) for being lockably received in an outer sleeve , the primary package comprising a main body panel (12; 112; 312; 412; 512; 612; 812) and a retention tab (14; 114; 314; 514; 614; 814), the retention tab being hingedly connected to the main body panel along a fold line (17; 117; 317; 417; 517; 617; 817), the fold line being an integral formation of the primary package, and at least one first embossment (18; 118; 318; 418; 518; 618; 818) formed in the retention tab, wherein the fold line is an embossment or debossment within the material forming the primary package, and wherein the at least one first embossment terminates at a point at a first distance from the fold line, the first distance being no greater than 2.5 mm, wherein the primary package comprises a first side and a second side, opposed to the first side, and wherein a cover sheet is mounted upon the first side and the at least one first embossment projects from the second side, the primary package being folded such that the first side of the retention tab is folded towards the first side of the main body panel, the package further comprising at least one second embossment (16; 116; 316; 416; 516; 816) formed in the main body panel and projecting from the second side and wherein the at least one second embossment terminates at a point at a second distance from the fold line, the second distance being no greater than 2.5 mm.
A method for wireless communication by a reference user equipment, UE, , comprising: transmitting a message in a first subset of a set of resources , the message comprising the position of the reference UE and a resource identifier, ID, indicating at least one symbol in a second subset of the set of resources for transmitting a sequence; transmitting the sequence in the at least one symbol in the second subset of the set of resources identified by the resource ID; receiving at least one other sequence from at least one other reference UE ; adjusting a transmission timing based on the time of arrival of the received at least one other sequence received from the at least one other reference UE and on the position of the reference UE and the position of the at least one other reference UE ; and transmitting, based on the adjusted transmission timing, the sequence in one or more symbols in a third subset of the set of resources , wherein the one or more symbols is identified by the resource ID. transmitting a message in a first subset of a set of resources , the message comprising the position of the reference UE and a resource identifier, ID, indicating at least one symbol in a second subset of the set of resources for transmitting a sequence; transmitting the sequence in the at least one symbol in the second subset of the set of resources identified by the resource ID; receiving at least one other sequence from at least one other reference UE ; adjusting a transmission timing based on the time of arrival of the received at least one other sequence received from the at least one other reference UE and on the position of the reference UE and the position of the at least one other reference UE ; and transmitting, based on the adjusted transmission timing, the sequence in one or more symbols in a third subset of the set of resources , wherein the one or more symbols is identified by the resource ID.
A method for producing a polyacrylic acid (salt) -based water absorbent resin powder, comprising storing a non-radical polymerizable, non-polymerized organic compound in a heated state, thereafter, mixing a mixture obtained by mixing the non-polymerized organic compound in a heated state with one or more of other compounds at a predetermined ratio, with a polyacrylic acid (salt) -based water absorbent resin, wherein the non-polymerised organic compound is stored in a heated state to a range of the melting point of the non-polymerised organic compound or higher and the melting point +100°C or lower, said melting point of the non-polymerised organic compound is 10 to 200°C, and the non-polymerised organic compound is a surface crosslinking agent of the water absorbent resin powder, preferably one or a plurality of dehydration reactive surface crosslinking agents.
A bone biospecific agent comprising a contrast material core, which is visible using Magnetic Resonance Imaging (MRI) or Computed Tomography (CT), wherein: i) the contrast material core comprises a magnetic material or gold and is surrounded by a polymeric shell, wherein the polymeric shell is functionalised with a bone-targeting peptide, wherein the bone-targeting peptide comprises a peptide selected from SEQ ID No.1-15; or ii) wherein the contrast material core comprises gadolinium and the core is functionalised with a bone targeting peptide, wherein the bone targeting peptide comprises SEQ ID No.3, and wherein the agent further comprises 1,4,7,10-tetraazacyclododecane-1,4,7,10-tetraacetic acid (DOTA), wherein the peptide, in use, targets the biospecific agent to bone, and wherein the peptide mimics proteins participating in the inhibition of osteoclast-osteoclast and/or osteoclast-osteoblast interactions, or recognises the mineral phase of bone. i) the contrast material core comprises a magnetic material or gold and is surrounded by a polymeric shell, wherein the polymeric shell is functionalised with a bone-targeting peptide, wherein the bone-targeting peptide comprises a peptide selected from SEQ ID No.1-15; or ii) wherein the contrast material core comprises gadolinium and the core is functionalised with a bone targeting peptide, wherein the bone targeting peptide comprises SEQ ID No.3, and wherein the agent further comprises 1,4,7,10-tetraazacyclododecane-1,4,7,10-tetraacetic acid (DOTA), wherein the peptide, in use, targets the biospecific agent to bone, and wherein the peptide mimics proteins participating in the inhibition of osteoclast-osteoclast and/or osteoclast-osteoblast interactions, or recognises the mineral phase of bone.
A crystal oscillator-based module , comprising: a conditioning circuit for receiving a synchronization clock signal from a first bus (SYNC B) and outputting a conditioned signal, the conditioning circuit comprising a CMOS inverter (U5) biased by a first resistor (R7), together with an LC delay section and a dumping resistor (R2) for conditioning the amplitude and phase of the synchronization clock signal; a crystal resonator (Z1) connected so as to receive the conditioned signal and output a resonator signal; a sustaining stage amplifier connected so as to receive the resonator signal and output a sustaining stage signal; a gain control network comprising a first inductor (L1) connected so as to receive the sustaining stage signal; a synchronization range expansion circuit connected between the gain control network and the resonator (Z1), the synchronization range expansion circuit comprising a second inductor (L2), wherein a closed loop is formed by the second inductor (L2) connected in series with the crystal resonator (Z1), the sustaining stage amplifier and the first inductor (LI); wherein the gain control network further includes a capacitor (C3) connected between ground and a connection node between the first inductor (L1) and the second inductor (L2); a buffer (U2) for receiving the sustaining stage signal and outputting a buffered signal; a tri-state buffer (U3) having a main input, a control input , and an output, the main input connected to receive the buffered signal, and the output connectable to a second bus (SYNC A). a conditioning circuit for receiving a synchronization clock signal from a first bus (SYNC B) and outputting a conditioned signal, the conditioning circuit comprising a CMOS inverter (U5) biased by a first resistor (R7), together with an LC delay section and a dumping resistor (R2) for conditioning the amplitude and phase of the synchronization clock signal; a crystal resonator (Z1) connected so as to receive the conditioned signal and output a resonator signal; a sustaining stage amplifier connected so as to receive the resonator signal and output a sustaining stage signal; a gain control network comprising a first inductor (L1) connected so as to receive the sustaining stage signal; a synchronization range expansion circuit connected between the gain control network and the resonator (Z1), the synchronization range expansion circuit comprising a second inductor (L2), wherein a closed loop is formed by the second inductor (L2) connected in series with the crystal resonator (Z1), the sustaining stage amplifier and the first inductor (LI); wherein the gain control network further includes a capacitor (C3) connected between ground and a connection node between the first inductor (L1) and the second inductor (L2); a buffer (U2) for receiving the sustaining stage signal and outputting a buffered signal; a tri-state buffer (U3) having a main input, a control input , and an output, the main input connected to receive the buffered signal, and the output connectable to a second bus (SYNC A).
Minimum pressure valve comprising a housing with a valve inlet and a valve outlet connected with each other by means of a chamber and connecting space , whereby the minimum pressure valve also comprises a valve body that is set up in a chamber , movable between, on the one hand, a closed position in which the valve inlet is closed off and, on the other hand, an open position in which the valve inlet is open, whereby the minimum pressure valve also comprises components which are provided with a seal and/or sliding parts , whereby a subassembly of the minimum pressure valve can be disassembled or assembled through an opening in the housing , characterised in that the subassembly has a specific shape so that it can only fit in the housing of the minimum pressure valve in one particular way.
A method of making a wind turbine blade , the wind turbine blade extending longitudinally in a spanwise direction and extending transversely in a chordwise direction between a leading edge and a trailing edge , the method comprising: a. providing a first half shell and a second half shell to be joined together, each half shell comprising an inner surface having concave curvature in the chordwise direction such that portions of the inner surface are inclined relative to a local chord of the blade; b. defining a shear web mounting region on an inclined portion of the inner surface of a half shell; c. providing a web locator having a fixed portion and a spring portion extending from the fixed portion, the spring portion being moveable relative to the fixed portion between compressed and relaxed states, and the spring portion being biased towards the relaxed state, d. attaching the fixed portion of the web locator to an inner surface of a half shell proximate to the mounting region such that at least part of the spring portion extends in front of the mounting region; e. providing a shear web having a mounting flange for bonding to the mounting region; f. providing adhesive on the mounting flange and/or on the mounting region; g. bringing the first and second half shells together with the shear web arranged therebetween, such that the mounting flange is guided by a surface of the spring portion of the web locator towards the mounting region and the spring portion compresses; and h. compressing and curing the adhesive . a. providing a first half shell and a second half shell to be joined together, each half shell comprising an inner surface having concave curvature in the chordwise direction such that portions of the inner surface are inclined relative to a local chord of the blade; b. defining a shear web mounting region on an inclined portion of the inner surface of a half shell; c. providing a web locator having a fixed portion and a spring portion extending from the fixed portion, the spring portion being moveable relative to the fixed portion between compressed and relaxed states, and the spring portion being biased towards the relaxed state, d. attaching the fixed portion of the web locator to an inner surface of a half shell proximate to the mounting region such that at least part of the spring portion extends in front of the mounting region; e. providing a shear web having a mounting flange for bonding to the mounting region; f. providing adhesive on the mounting flange and/or on the mounting region; g. bringing the first and second half shells together with the shear web arranged therebetween, such that the mounting flange is guided by a surface of the spring portion of the web locator towards the mounting region and the spring portion compresses; and h. compressing and curing the adhesive .
Method for optimising the transfer or "handover" procedure of a mobile terminal T of a first radio site to a second radio site in a distributed network, and with which the mobile terminal T can be affiliated, the radio sites comprising a first source radio station , a second target radio station , each source radio station comprising a plurality of logic entities, an MME entity for the management of the mobility of the terminals, a connection gateway PDN-Gw providing the connection of a user terminal to a network, a HSS module containing information of a user and its registration, a PCRF service quality control module, said radio sites being connected to each other by means of a connection network R, characterized in that a "Gratuitous Address Resolution Protocol" announcement message, GARP containing the IP address of the mobile terminal and the MAC address of the controller of the base stations for maintenance of the connectivity of the mobile terminal T with the connection network R when the mobile terminal T changes from the first radio site to the second radio site is transmitted by the gateway of the target site during the "handover" procedure, after the initialisation step of entry of the mobile terminal in the network, and after the procedure of "handover" preparation announcing the arrival of the mobile terminal at the second radio site, and after the end of the re-localisation information exchanges between the first radio station and the second target radio station , and re-establishment of all of the logic connections between the gateway PDN-Gw and the terminal and between all the logic entities of the second target radio station and the mobile terminal.