mhurhangee/patent-ind-claim-en huggingface dataset:
A consumer product comprising the combination of a consumer product ingredient and microcapsules, the microcapsules having a wall with a surface charge, the microcapsules made by a process comprising: dispersing in one or more water phases an initiator, and a cross-linking functional monomer having one or more -OH, -NH 2 , or -NH - groups, and a charge functional monomer having one or more anionic or cationic groups which may be selected from carboxy, sulfonic acid, quaternary ammonium groups, or other charged groups; prereacting the monomers in the one or more water phases and combining with a water dispersible multifunctional (meth)acrylate monomer; further prereacting the combined monomers; forming an emulsion by emulsifying into the water phase or phases, using high shear agitation, an oil phase comprising an isocyanate and a benefit agent core material; optionally adding in addition, an amine cross-linker; further reacting the combined emulsion of prereacted monomers, water dispersible multifunctional (meth)acrylate monomer, and emulsified oil phase by heating for a time and temperature, or actinic irradiation for a time, sufficient to form a microcapsule wall surrounding the benefit agent core material. dispersing in one or more water phases an initiator, and a cross-linking functional monomer having one or more -OH, -NH 2 , or -NH - groups, and a charge functional monomer having one or more anionic or cationic groups which may be selected from carboxy, sulfonic acid, quaternary ammonium groups, or other charged groups; prereacting the monomers in the one or more water phases and combining with a water dispersible multifunctional (meth)acrylate monomer; further prereacting the combined monomers; forming an emulsion by emulsifying into the water phase or phases, using high shear agitation, an oil phase comprising an isocyanate and a benefit agent core material; optionally adding in addition, an amine cross-linker; further reacting the combined emulsion of prereacted monomers, water dispersible multifunctional (meth)acrylate monomer, and emulsified oil phase by heating for a time and temperature, or actinic irradiation for a time, sufficient to form a microcapsule wall surrounding the benefit agent core material.
A method for utilizing backhaul resources during multipoint reception performed by a controller , the method comprising: • identifying access points receiving a wireless transmission from a user equipment in accordance with a multipoint reception scheme, wherein the access points are access points at which a lower-layer decoding of the wireless transmissions is performed to obtain radio link control, RLC, physical data units, PDUs, , wherein the lower-layer decoding is formed by a physical layer decoding decoding the wireless transmission into medium access control, MAC, PDUs together with a medium access control, MAC, layer decoding decoding the MAC PDUs into the RLC PDUs, and • scheduling the RLC PDUs to be communicated from the access points over backhaul links (601-607) to a network node , wherein the network node is a network node at which a radio link control, RLC, layer decoding of the RLC PDUs is performed for obtaining data packets, wherein the scheduling the RLC PDUs over the backhaul links (601-607) comprises: ∘ instructing a first access point among the identified access points to buffer a first RLC PDU among the RLC PDUs during a first period without sending the first RLC PDU over a first backhaul link, among the backhaul links (601-607), extending from the first access point to the network node during the first period. • identifying access points receiving a wireless transmission from a user equipment in accordance with a multipoint reception scheme, wherein the access points are access points at which a lower-layer decoding of the wireless transmissions is performed to obtain radio link control, RLC, physical data units, PDUs, , wherein the lower-layer decoding is formed by a physical layer decoding decoding the wireless transmission into medium access control, MAC, PDUs together with a medium access control, MAC, layer decoding decoding the MAC PDUs into the RLC PDUs, and • scheduling the RLC PDUs to be communicated from the access points over backhaul links (601-607) to a network node , wherein the network node is a network node at which a radio link control, RLC, layer decoding of the RLC PDUs is performed for obtaining data packets, wherein the scheduling the RLC PDUs over the backhaul links (601-607) comprises: ∘ instructing a first access point among the identified access points to buffer a first RLC PDU among the RLC PDUs during a first period without sending the first RLC PDU over a first backhaul link, among the backhaul links (601-607), extending from the first access point to the network node during the first period. ∘ instructing a first access point among the identified access points to buffer a first RLC PDU among the RLC PDUs during a first period without sending the first RLC PDU over a first backhaul link, among the backhaul links (601-607), extending from the first access point to the network node during the first period.
- A wear sensor for a wear element in a bucket of an earth moving machine that comprises a sensing electric circuit and at least one elongated arm extending in a direction of detection defining a longitudinal axis, said elongated arm having a base and an end, where said end is suitable for being worn together with the wear material of the wear element, where said elongated arm comprises a plurality of electrical connections forming part of said sensing electric circuit and extending different lengths with respect to one another, measured according to said longitudinal axis along said arm , said sensor being formed by two portions which are two physically independent parts, where a first portion comprises said elongated arm and wireless interconnection means and a second portion comprises a detection circuit suitable for detecting the failure of each of said electrical connections , a data transmission circuit with a radio-frequency emitter, where said radio-frequency emitter emits in a frequency comprised between 50 MHz and 990 MHz, and second wireless interconnection means suitable for establishing a wireless connection with said wireless interconnection means, characterized in that said electrical connections are part of a plurality of LC circuits connected in cascade to one another, where said second portion is able to transmit a pre-established signal to said sensing electric circuit through said second wireless interconnection means and said wireless interconnection means, said pre-established signal is a variable signal, said detection circuit is suitable for detecting the resonance of said plurality of LC circuits at said pre-established signal.
A memory controller to control the operation of a DRAM memory device having a memory array, the memory controller comprising: a transmitter to transmit encoded data (DO) and a mask signal (DM) to the DRAM memory device ; and an encoder to receive data and, based on a mode, provide encoded data (DO) and the mask signal (DM) to the transmitter, wherein the encoder is configured to: (i) if the encoded data (DO) is to be masked before being written to the DRAM memory device , generate the encoded data (DQ) as a predetermined bit pattern and generate the mask signal (DM) to have a first state; (ii) if the encoded data (DO) is to be inverted before being transmitted to the DRAM memory device , generate the encoded data (DQ) as inverted data and generate the mask signal (DM) to have a second state; and (iii) if the encoded data (DO) is to be non-inverted before being transmitted to the DRAM memory device , generate the encoded data as non-inverted data and generate the mask signal (DM) to have the first state. a transmitter to transmit encoded data (DO) and a mask signal (DM) to the DRAM memory device ; and an encoder to receive data and, based on a mode, provide encoded data (DO) and the mask signal (DM) to the transmitter, wherein the encoder is configured to: (i) if the encoded data (DO) is to be masked before being written to the DRAM memory device , generate the encoded data (DQ) as a predetermined bit pattern and generate the mask signal (DM) to have a first state; (ii) if the encoded data (DO) is to be inverted before being transmitted to the DRAM memory device , generate the encoded data (DQ) as inverted data and generate the mask signal (DM) to have a second state; and (iii) if the encoded data (DO) is to be non-inverted before being transmitted to the DRAM memory device , generate the encoded data as non-inverted data and generate the mask signal (DM) to have the first state. (i) if the encoded data (DO) is to be masked before being written to the DRAM memory device , generate the encoded data (DQ) as a predetermined bit pattern and generate the mask signal (DM) to have a first state; (ii) if the encoded data (DO) is to be inverted before being transmitted to the DRAM memory device , generate the encoded data (DQ) as inverted data and generate the mask signal (DM) to have a second state; and (iii) if the encoded data (DO) is to be non-inverted before being transmitted to the DRAM memory device , generate the encoded data as non-inverted data and generate the mask signal (DM) to have the first state.
A method for two-dimensional protein separation featuring the steps: (a) separation of the proteins according to their isoelectric point by way of ion exchange chromatography using an ion exchange column to obtain a fraction collective , and (b) capillary electrophoretic separation of the fraction collective , characterised by the fact that (c) the capillary electrophoretic separation is conducted by means of a chip , and (d) the ion exchange column is preceded by a precolumn that comprises a lipophilic stationary phase. (a) separation of the proteins according to their isoelectric point by way of ion exchange chromatography using an ion exchange column to obtain a fraction collective , and (b) capillary electrophoretic separation of the fraction collective , characterised by the fact that (c) the capillary electrophoretic separation is conducted by means of a chip , and (d) the ion exchange column is preceded by a precolumn that comprises a lipophilic stationary phase.
An inert anode electrolytic cell, comprising: - two or more groups of inert anodes configured to deliver an electric current to an electrolytic bath in liquid contact with the two or more anodes, said one or more anodes comprising a metal oxide; - a first anode distributor plate electrically connected to a first group of inert anodes configured to distribute the electrical current to the first group of inert anodes; - a first voltage probe configured to detect a voltage drop associated with the first anode distributor plate and transmit a corresponding first voltage drop signal; - a second anode distributor plate electrically connected to a second group of inert anodes configured to distribute the electrical current to the second group of inert anodes; - a second voltage probe configured to detect a voltage drop associated with the second anode distributor plate and transmit a corresponding second voltage drop signal; - a monitoring device configured to receive the first and second voltage drop signals and configured to generate a thermite response signal if one of the first or second voltage drop signal meets or exceeds a threshold voltage drop; and - a pot control system configured to receive the thermite response signal and configured to adjust operation parameters of the electrolytic cell according to the thermite response signal, wherein the monitoring device generates the thermite response signal if, when compared to the threshold voltage drop, one or more of the first and second voltage drop signals voltage drop indicates a sudden rise of voltage drop across the first or second anode distributor plate. - two or more groups of inert anodes configured to deliver an electric current to an electrolytic bath in liquid contact with the two or more anodes, said one or more anodes comprising a metal oxide; - a first anode distributor plate electrically connected to a first group of inert anodes configured to distribute the electrical current to the first group of inert anodes; - a first voltage probe configured to detect a voltage drop associated with the first anode distributor plate and transmit a corresponding first voltage drop signal; - a second anode distributor plate electrically connected to a second group of inert anodes configured to distribute the electrical current to the second group of inert anodes; - a second voltage probe configured to detect a voltage drop associated with the second anode distributor plate and transmit a corresponding second voltage drop signal; - a monitoring device configured to receive the first and second voltage drop signals and configured to generate a thermite response signal if one of the first or second voltage drop signal meets or exceeds a threshold voltage drop; and - a pot control system configured to receive the thermite response signal and configured to adjust operation parameters of the electrolytic cell according to the thermite response signal,
A turbine engine component comprising: a shroud ring ; and a stationary airfoil coupled to the shroud ring , the stationary airfoil comprising: a leading edge and a trailing edge interconnected by a concave pressure sidewall and a convex suction sidewall ; and an end portion forming a slip joint with the shroud ring , the slip joint permitting radial movement of the stationary airfoil relative to the shroud ring characterised in that the end portion is generally C-shaped and includes a pair of inwardly deformable opposing flanges to define the slip joint , the end portion has a pair of sloping curved side surface areas that first curve radially outwardly from the concave and convex sidewalls and then curve inwardly to define the opposing flanges and the generally C-shaped end portion. a shroud ring ; and a stationary airfoil coupled to the shroud ring , the stationary airfoil comprising: a leading edge and a trailing edge interconnected by a concave pressure sidewall and a convex suction sidewall ; and an end portion forming a slip joint with the shroud ring , the slip joint permitting radial movement of the stationary airfoil relative to the shroud ring characterised in that the end portion is generally C-shaped and includes a pair of inwardly deformable opposing flanges to define the slip joint , the end portion has a pair of sloping curved side surface areas that first curve radially outwardly from the concave and convex sidewalls and then curve inwardly to define the opposing flanges and the generally C-shaped end portion. a leading edge and a trailing edge interconnected by a concave pressure sidewall and a convex suction sidewall ; and an end portion forming a slip joint with the shroud ring , the slip joint permitting radial movement of the stationary airfoil relative to the shroud ring characterised in that the end portion is generally C-shaped and includes a pair of inwardly deformable opposing flanges to define the slip joint , the end portion has a pair of sloping curved side surface areas that first curve radially outwardly from the concave and convex sidewalls and then curve inwardly to define the opposing flanges and the generally C-shaped end portion.
An assembly formed of a plasma cutting torch head connected to a plasma torch body by means of a securing ring , said plasma cutting torch head comprising an upstream end and a downstream end, and the fixing ring being movable in rotation and in translation at least at the upstream end of said torch head , said ring comprising a thread formed on its inner wall and being used to connect said torch head to the torch body , characterised in that the turns of said thread have a trapezoidal section, said torch body comprising a thread of trapezoidal section complementary to the thread of said torch head , and characterised by a radial play relative to the axis of the torch, which play facilitates the insertion of fluid and electrical connections, on the furthest downstream portion of the torch head , into corresponding recesses situated on the further upstream portion of the torch body .
A method for improving the ex vivo viability of a skin tissue type, the method comprising the steps of: mounting samples of the skin tissue type in a skin sample holder; applying separate tensions to at least some of the samples; and measuring the ability of the at least some of the samples to maintain live skin characteristics, such that, for the skin tissue type, the measurements of live skin characteristics determine values of skin tension which improve the ex vivo viability of the skin tissue type, wherein the values of skin tension comprise a continuous range of tension values and tension measurements are made in multiple samples of the skin tissue type to populate the range of tension values between unstretched and a maximum stretch. mounting samples of the skin tissue type in a skin sample holder; applying separate tensions to at least some of the samples; and measuring the ability of the at least some of the samples to maintain live skin characteristics, such that, for the skin tissue type, the measurements of live skin characteristics determine values of skin tension which improve the ex vivo viability of the skin tissue type, wherein the values of skin tension comprise a continuous range of tension values and tension measurements are made in multiple samples of the skin tissue type to populate the range of tension values between unstretched and a maximum stretch.
A printhead comprising: an address line for communicating a set of addresses; a number of primitives, each primitive including: a plurality of controllable activation devices coupled to the address line, each activation device corresponding to at least one address of the set of addresses, each address corresponding to a primitive function; a buffer to receive a series of data packets, each data packet including address bits representative of one address of the set of addresses and print data, the print data being data for the primitive function corresponding to the address; and address logic to receive the address bits from the buffer, wherein for each data packet the address logic is to encode the address represented by the address bits onto the address line, and wherein the at least one activation device corresponding to the encoded address is to activate the primitive function corresponding to address based on the encoded address being on the address line. an address line for communicating a set of addresses; a number of primitives, each primitive including: a plurality of controllable activation devices coupled to the address line, each activation device corresponding to at least one address of the set of addresses, each address corresponding to a primitive function; a buffer to receive a series of data packets, each data packet including address bits representative of one address of the set of addresses and print data, the print data being data for the primitive function corresponding to the address; and address logic to receive the address bits from the buffer, wherein for each data packet the address logic is to encode the address represented by the address bits onto the address line, and wherein the at least one activation device corresponding to the encoded address is to activate the primitive function corresponding to address based on the encoded address being on the address line.
An actuating system for a window shade , comprising an electric motor unit and two cord winding assemblies ; wherein each of the two cord winding assemblies comprises: a housing having a first and a second end opposite to each other, and a cavity between the first and second ends ; a first spool portion connected with a first suspension cord , and a second spool portion connected with a second suspension cord , the first and second spool portions being disposed in the cavity of the housing ; and a transmission axle rotationally coupled to the first and second spool portions and extending outside the housing at least at the first end thereof, the transmission axle and the first and second spool portions being rotatable concurrently relative to the housing in a first direction for respectively winding the first and second suspension cords around the first and second spool portions , and in a second direction opposite to the first direction for respectively unwinding the first and second suspension cords from the first and second spool portions ; and wherein the two cord winding assemblies are respectively disposed at two opposite sides of the electric motor unit , the electric motor unit being respectively coupled to the transmission axle of each of the two cord winding assemblies . wherein each of the two cord winding assemblies comprises: a housing having a first and a second end opposite to each other, and a cavity between the first and second ends ; a first spool portion connected with a first suspension cord , and a second spool portion connected with a second suspension cord , the first and second spool portions being disposed in the cavity of the housing ; and a transmission axle rotationally coupled to the first and second spool portions and extending outside the housing at least at the first end thereof, the transmission axle and the first and second spool portions being rotatable concurrently relative to the housing in a first direction for respectively winding the first and second suspension cords around the first and second spool portions , and in a second direction opposite to the first direction for respectively unwinding the first and second suspension cords from the first and second spool portions ; and wherein the two cord winding assemblies are respectively disposed at two opposite sides of the electric motor unit , the electric motor unit being respectively coupled to the transmission axle of each of the two cord winding assemblies .