mhurhangee/patent-ind-claim-en huggingface dataset:
An exhaust gas treatment system for an internal combustion engine , the system comprising: an exhaust gas pathway configured to receive exhaust gas from the internal combustion engine ; a temperature sensor configured to sense a temperature of the exhaust gas; a first injector configured to inject a first reductant into the exhaust gas pathway at a first location when the sensed temperature is below a threshold temperature; a first treatment element positioned downstream of the first location; a second injector configured to inject a second reductant of a different composition than the first reductant into the exhaust gas pathway at a second location downstream of the first treatment element when the sensed temperature is above the threshold temperature; and a second treatment element positioned downstream of the second location, further comprising a reservoir, configured to store a volume of the second reductant, characterized in that the system further comprises a reaction chamber configured to receive a quantity of the second reductant from the reservoir and convert the second reductant into the first reductant, further comprising an electric heating element configured to selectively heat the reaction chamber to convert the second reductant into the first reductant. an exhaust gas pathway configured to receive exhaust gas from the internal combustion engine ; a temperature sensor configured to sense a temperature of the exhaust gas; a first injector configured to inject a first reductant into the exhaust gas pathway at a first location when the sensed temperature is below a threshold temperature; a first treatment element positioned downstream of the first location; a second injector configured to inject a second reductant of a different composition than the first reductant into the exhaust gas pathway at a second location downstream of the first treatment element when the sensed temperature is above the threshold temperature; and a second treatment element positioned downstream of the second location, further comprising a reservoir, configured to store a volume of the second reductant, characterized in that the system further comprises a reaction chamber configured to receive a quantity of the second reductant from the reservoir and convert the second reductant into the first reductant, further comprising an electric heating element configured to selectively heat the reaction chamber to convert the second reductant into the first reductant.
Method of producing raw cured meats without bone and without rind with a short maturation including the following phases: - a phase of receipt on the production line of the raw material in the fresh state at a temperature at the core of the product between 0 °C and +8 °C; - a dry salting phase with a tanning weight between 1.5% and 4.5% of the weight of the meat to be treated; - a phase of vacuum packing the salty product; - a resting phase of the product under vacuum in a salting cell for at least seven days at a temperature below +10 °C; - a phase of filling the anatomical piece into natural or artificial casing, after removing the vacuum bag; - a cold rest phase of the bagged and tied product in a resting cell for at least twenty days at a temperature between 0 °C and +7 °C and a relative humidity between 65% and 90%; - a drying phase in which the product remains in a drying room for at least seven days at a temperature between + 14 °C and + 25 °C and relative humidity between 50% and 95%; - a phase of maturing of the product in the maturing rooms for a period of between 1 month and 16 months at a temperature between + 12 °C and + 18 °C and a relative humidity between 80% and 95%; - a phase of washing the aging molds, peeling the casing of the product and packaging it in a vacuum bag; - an optional refining phase in which the product stays in cells for at least seven days at a temperature between + 6 °C and + 18 °C. - a phase of receipt on the production line of the raw material in the fresh state at a temperature at the core of the product between 0 °C and +8 °C; - a dry salting phase with a tanning weight between 1.5% and 4.5% of the weight of the meat to be treated; - a phase of vacuum packing the salty product; - a resting phase of the product under vacuum in a salting cell for at least seven days at a temperature below +10 °C; - a phase of filling the anatomical piece into natural or artificial casing, after removing the vacuum bag; - a cold rest phase of the bagged and tied product in a resting cell for at least twenty days at a temperature between 0 °C and +7 °C and a relative humidity between 65% and 90%; - a drying phase in which the product remains in a drying room for at least seven days at a temperature between + 14 °C and + 25 °C and relative humidity between 50% and 95%; - a phase of maturing of the product in the maturing rooms for a period of between 1 month and 16 months at a temperature between + 12 °C and + 18 °C and a relative humidity between 80% and 95%; - a phase of washing the aging molds, peeling the casing of the product and packaging it in a vacuum bag; - an optional refining phase in which the product stays in cells for at least seven days at a temperature between + 6 °C and + 18 °C.
A bioprocess mixer , comprising: a support vessel comprising at least one side wall and a bottom wall , said walls defining a support vessel inner volume , and at least a first and a second magnetic impeller drive unit, and a flexible bag (11;111) adapted to fit inside said support vessel inner volume , said bag having at least one bag side wall (12;112,13;113,14,15), a bag bottom wall (16;116) and a bag top wall (17;117) defining a bag inner volume , with at least a first and a second magnetic impeller rotatably attached to one or more bag wall in said bag inner volume , characterized in that said support vessel inner volume has a length-to-width ratio of at least 1.5 and said support vessel inner volume has a height-to-width ratio of 0.7-2. a support vessel comprising at least one side wall and a bottom wall , said walls defining a support vessel inner volume , and at least a first and a second magnetic impeller drive unit, and a flexible bag (11;111) adapted to fit inside said support vessel inner volume , said bag having at least one bag side wall (12;112,13;113,14,15), a bag bottom wall (16;116) and a bag top wall (17;117) defining a bag inner volume , with at least a first and a second magnetic impeller rotatably attached to one or more bag wall in said bag inner volume ,
Device for mixing powders (P) by a cryogenic fluid, in particular actinide powerds, comprising : - a chamber (E1) for mixing the powders (P), comprising a cryogenic fluid (FC), provided with means for forming a fluidised powder bed (Lf), - a chamber (A1) for supplying powders (P) in order to allow the powders (P) to be introduced into the mixing chamber (E1), - a chamber (B1) for supplying cryogenic fluid (FC) in order to allow the cryogenic fluid (FC) to be introduced into the mixing chamber (E1), - a system for generating vibrations (Vb) in the fluidised powder bed (Lf), - a system (Sp) for controlling the system for generating vibrations (Vb). - a chamber (E1) for mixing the powders (P), comprising a cryogenic fluid (FC), provided with means for forming a fluidised powder bed (Lf), - a chamber (A1) for supplying powders (P) in order to allow the powders (P) to be introduced into the mixing chamber (E1), - a chamber (B1) for supplying cryogenic fluid (FC) in order to allow the cryogenic fluid (FC) to be introduced into the mixing chamber (E1), - a system for generating vibrations (Vb) in the fluidised powder bed (Lf), - a system (Sp) for controlling the system for generating vibrations (Vb).
An electrostatic adsorbable sheet (iii) which is a laminate comprising: a label layer (i) containing a thermoplastic resin film layer (A) and a recording layer (B) on one surface of the resin film layer (A); and a support layer (ii), wherein at least one of the label layer (i) and the support layer (ii) is subjected to an electrically charging treatment, the resin film layer (A) and the support layer (ii) are electrostatically adsorbed, the surface resistivity of the label layer (i) side is from 1×10 -1 Ω to 9×10 12 Ω, and the surface resistivity of the support layer (ii) side is from 1×10 -1 Ω to 9×10 12 Ω; wherein the electrically charging treatment is a direct-current corona discharge treatment; and wherein the thermoplastic resin in the resin film layer (A) contains a polyolefin resin; and wherein the recording layer (B) contains a polymer having an antistatic function.
A method for generating chlorine dioxide from a composition comprising a polymer and a chlorite salt disposed in the polymer, the method comprising: exposing the composition to ultraviolet (UV) light; and exposing the composition to moisture, wherein the composition comprises less than 10% by weight of an energy-activated catalyst and comprises 2% or less by weight of an acid-releasing agent, and wherein the composition comprises a ratio of energy-activated catalyst to chlorite salt of 1:2 or less and comprises a ratio of acid-releasing compound to chlorite salt of 1:10 or less. exposing the composition to ultraviolet (UV) light; and exposing the composition to moisture, wherein the composition comprises less than 10% by weight of an energy-activated catalyst and comprises 2% or less by weight of an acid-releasing agent, and wherein the composition comprises a ratio of energy-activated catalyst to chlorite salt of 1:2 or less and comprises a ratio of acid-releasing compound to chlorite salt of 1:10 or less.
A coaptation assist device (100; 200; 300; 400; 500) for repairing a mitral valve, the coaptation assist device (100; 200; 300; 400; 500) comprising: an atrial fixation member configured to press against cardiac tissue proximate to a native mitral annulus; a coaptation structure extending away from the atrial fixation member and radially inward from the atrial fixation member , the coaptation structure comprising an anterior surface configured to coapt with a first native leaflet during systole and a posterior surface configured to displace at least a portion of a second native leaflet, wherein the coaptation structure is substantially stationary during cardiac cycles; and a sensor (106; 206; 306; 406; 506) affixed to a portion of the coaptation assist device (100; 200; 300; 400; 500) and configured to detect one or more parameters associated with at least one of cardiac function and device functionality. an atrial fixation member configured to press against cardiac tissue proximate to a native mitral annulus; a coaptation structure extending away from the atrial fixation member and radially inward from the atrial fixation member , the coaptation structure comprising an anterior surface configured to coapt with a first native leaflet during systole and a posterior surface configured to displace at least a portion of a second native leaflet, wherein the coaptation structure is substantially stationary during cardiac cycles; and a sensor (106; 206; 306; 406; 506) affixed to a portion of the coaptation assist device (100; 200; 300; 400; 500) and configured to detect one or more parameters associated with at least one of cardiac function and device functionality.
A method for manufacturing a fluid sensor device, the method comprising: bonding a silicon-on-insulator arrangement comprising a silicon wafer , a buried oxide , a silicon layer , and a first dielectric layer , to a CMOS arrangement comprising a metallization layer and a planarized dielectric layer , wherein the bonding is performed via the first dielectric layer and the planarized dielectric layer ; removing the buried oxide and the silicon wafer ; forming a fin-FET arrangement in the silicon layer , wherein the fin-FET arrangement is configured to function as a fluid sensitive fin-FET arrangement ; forming a contact to the metallization layer and the fin-FET arrangement , wherein the contact comprises an interconnecting structure configured to interconnect the metallization layer and the fin-FET arrangement , wherein the contact comprises a vertical arrangement comprising a first vertical portion configured to be in contact with the fin-FET arrangement , and a second vertical portion configured to be in contact with the metallization layer , wherein the interconnecting structure is configured to connect the metallization layer and the fin-FET arrangement via the vertical arrangement; forming a channel comprising an inlet and an outlet , wherein the channel is configured to at least partially expose the fin-FET arrangement and to allow a fluid comprising an analyte to contact the fin-FET arrangement . bonding a silicon-on-insulator arrangement comprising a silicon wafer , a buried oxide , a silicon layer , and a first dielectric layer , to a CMOS arrangement comprising a metallization layer and a planarized dielectric layer , wherein the bonding is performed via the first dielectric layer and the planarized dielectric layer ; removing the buried oxide and the silicon wafer ; forming a fin-FET arrangement in the silicon layer , wherein the fin-FET arrangement is configured to function as a fluid sensitive fin-FET arrangement ; forming a contact to the metallization layer and the fin-FET arrangement , wherein the contact comprises an interconnecting structure configured to interconnect the metallization layer and the fin-FET arrangement , wherein the contact comprises a vertical arrangement comprising a first vertical portion configured to be in contact with the fin-FET arrangement , and a second vertical portion configured to be in contact with the metallization layer , wherein the interconnecting structure is configured to connect the metallization layer and the fin-FET arrangement via the vertical arrangement; forming a channel comprising an inlet and an outlet , wherein the channel is configured to at least partially expose the fin-FET arrangement and to allow a fluid comprising an analyte to contact the fin-FET arrangement .
A computer-implemented method for generating a video fingerprint, comprising: performing (S101) shot boundary detection on content of a video; determining (S102) a time duration of each shot according to positional points of the shot boundary, and compose the time duration of each shot into a shot boundary time slice sequence; and characterized in that the method further comprises obtaining (S103) video fingerprint information according to the time slice sequence by obtaining video fingerprint information of a current shot according to a difference between a time slice element of the current shot and a time slice element of an adjacent shot in the time slice sequence. performing (S101) shot boundary detection on content of a video; determining (S102) a time duration of each shot according to positional points of the shot boundary, and compose the time duration of each shot into a shot boundary time slice sequence; and characterized in that the method further comprises obtaining (S103) video fingerprint information according to the time slice sequence by obtaining video fingerprint information of a current shot according to a difference between a time slice element of the current shot and a time slice element of an adjacent shot in the time slice sequence.
A drill having at least one cutting edge, wherein a projecting shape of a passing area of a ridgeline of the at least one cutting edge when the at least one cutting edge is rotated around a tool axis (Tax) forms a line-symmetric and polygonal line along a parabola or an ellipse, the projecting shape being drawn on a projection plane parallel to the tool axis (Tax), wherein the polygonal line is obtained by discontinuously connecting at least six linear line segments, of which positions of both ends of each line segment lie on a common parabola or ellipse.
A method of wireless communication by a user equipment, UE, for transmitting channel state information, CSI, feedback, the method comprising: determining a first time scale for transmitting capability information regarding receiver performance at the UE, wherein the capability information comprises: a block error ratio, BLER, for signal-mutual information, S-MI, as a function of at least one of a signal rank, a modulation and coding scheme, MCS, or a transmission mode, TM, or a block error ratio, BLER, for interference-mutual information, I-MI, as a function of at least one of an interference rank, a modulation and coding scheme, MCS, or a transmission mode, TM; determining a second time scale for transmitting the channel condition information, wherein the channel condition information comprises at least one of a signal level, an interference level, a signal matrix, or an interference matrix; and transmitting the capability information according to the determined first time scale and the channel condition information according to the determined second time scale, wherein the UE transmits the channel condition information more often than the capability information. determining a first time scale for transmitting capability information regarding receiver performance at the UE, wherein the capability information comprises: a block error ratio, BLER, for signal-mutual information, S-MI, as a function of at least one of a signal rank, a modulation and coding scheme, MCS, or a transmission mode, TM, or a block error ratio, BLER, for interference-mutual information, I-MI, as a function of at least one of an interference rank, a modulation and coding scheme, MCS, or a transmission mode, TM; a block error ratio, BLER, for signal-mutual information, S-MI, as a function of at least one of a signal rank, a modulation and coding scheme, MCS, or a transmission mode, TM, or a block error ratio, BLER, for interference-mutual information, I-MI, as a function of at least one of an interference rank, a modulation and coding scheme, MCS, or a transmission mode, TM; determining a second time scale for transmitting the channel condition information, wherein the channel condition information comprises at least one of a signal level, an interference level, a signal matrix, or an interference matrix; and transmitting the capability information according to the determined first time scale and the channel condition information according to the determined second time scale, wherein the UE transmits the channel condition information more often than the capability information.
A method of delivering a ready-mix concrete composed of a plurality of components to a target location that is proximate a pour site, the method comprising: positioning a ready-mix concrete preparation system comprising a pump and a mixing volume on a waterborne facility ; positioning the waterborne facility on a body of water, wherein the waterborne facility includes a spoolable pipe wound on a spool, and wherein the pump is configured to pump the ready-mix from the mixing volume to the spoolable pipe; guiding an outlet end of the spoolable pipe from the waterborne facility to a target location that is proximate to the pour site; preparing the ready-mix concrete at the waterborne facility using the mixing volume ; and pumping the ready-mix concrete to the target location via the spoolable pipe ; characterized by the spoolable pipe being formed primarily of a non-metal and including a plurality of bonded layers, wherein the spoolable pipe runs generally parallel to the water's surface, being totally submersed, partially submersed or fully floating in the body of water by flotation devices included along its length or along given sections. positioning a ready-mix concrete preparation system comprising a pump and a mixing volume on a waterborne facility ; positioning the waterborne facility on a body of water, wherein the waterborne facility includes a spoolable pipe wound on a spool, and wherein the pump is configured to pump the ready-mix from the mixing volume to the spoolable pipe; guiding an outlet end of the spoolable pipe from the waterborne facility to a target location that is proximate to the pour site; preparing the ready-mix concrete at the waterborne facility using the mixing volume ; and pumping the ready-mix concrete to the target location via the spoolable pipe ;
Sealing strand for forming a seal by connecting the sealing strand with a strand seat extending along a gap to be sealed, wherein the sealing strand comprises a tape region provided for adhesive bonding to the strand seat, characterized in that when elongating the sealing strand in the strand longitudinal direction, the tensile stress corresponding to the elongation in the tape region is at least partially compensated or able to be compensated, wherein the tape region is compressed to compensate for the tensile stress in the tape region of the sealing strand that is adjacent to the strand seat, such that only a reduction of the degree of compression but no tensile stress at all arises in the elongation of the sealing strand in the tape region.
A holding device to hold a tube or cable in engagement with a bracket ; the holding device comprising: - a structure having: a) a seat , which is a through passage along an axis and is defined by a substantially C-shaped edge so as to have a radial opening ; and b) a slit , which allows said bracket , in use, to be inserted into said slit ; the holding device further comprising: - a wing , which is movable between an open configuration, in which said seat can be accessed through said radial opening , and a closed configuration, in which said radial opening is closed by said wing ; characterized in that the slit extends through the structure along a radial direction up to said seat so as to allow said bracket , in use, to be inserted into said slit and thereby engage said seat . - a structure having: a) a seat , which is a through passage along an axis and is defined by a substantially C-shaped edge so as to have a radial opening ; and b) a slit , which allows said bracket , in use, to be inserted into said slit ; a) a seat , which is a through passage along an axis and is defined by a substantially C-shaped edge so as to have a radial opening ; and b) a slit , which allows said bracket , in use, to be inserted into said slit ; - a wing , which is movable between an open configuration, in which said seat can be accessed through said radial opening , and a closed configuration, in which said radial opening is closed by said wing ;