mhurhangee/patent-ind-claim-en huggingface dataset:
A computer-implemented method for linearizing flow gain of a fluid regulator, the method comprising: determining a first characterization of a first fluid regulator flow relative to a control signal based on a standardized operating environment for a fluid regulator; receiving characteristics of a projected operational environment for the fluid regulator; generating a second characterization of a second fluid regulator flow relative to the control signal based on the first characterization and the received characteristics; and linearizing a fluid regulator flow gain relative to the control signal based on the second characterization, characterized by the following features: the first fluid regulator flow comprises a percent rated travel relative to a percent rated flow capacity. determining a first characterization of a first fluid regulator flow relative to a control signal based on a standardized operating environment for a fluid regulator; receiving characteristics of a projected operational environment for the fluid regulator; generating a second characterization of a second fluid regulator flow relative to the control signal based on the first characterization and the received characteristics; and linearizing a fluid regulator flow gain relative to the control signal based on the second characterization, characterized by the following features: the first fluid regulator flow comprises a percent rated travel relative to a percent rated flow capacity.
A system comprising: a transmitter coupled to a link ; a receiver coupled to the link and configured to receive signals over the link from the transmitter; a transmit control module configured to cause the transmitter to enter and exit a low-power mode; and a clock module coupled to the transmitter and configured to provide a clock signal to the transmitter, wherein the clock module is further configured to provide the clock signal as a divided clock signal to the transmitter when the transmitter is in the low-power mode, further wherein the divided clock signal has a same phase as the clock signal before entry into the low-power mode; wherein the receiver is configured to halt performing adaptive equalization and variable gain control in response to the transmitter entering the low-power mode; characterized in that the receiver is further configured to save variable gain control settings and equalization settings in response to the transmitter entering the low-power mode; and wherein the receiver is further configured to resume performing adaptive equalization and variable gain control, in response to the transmitter subsequently exiting the low-power mode, by applying the saved variable gain control settings and equalization settings. a transmitter coupled to a link ; a receiver coupled to the link and configured to receive signals over the link from the transmitter; a transmit control module configured to cause the transmitter to enter and exit a low-power mode; and a clock module coupled to the transmitter and configured to provide a clock signal to the transmitter, wherein the clock module is further configured to provide the clock signal as a divided clock signal to the transmitter when the transmitter is in the low-power mode, further wherein the divided clock signal has a same phase as the clock signal before entry into the low-power mode; wherein the receiver is configured to halt performing adaptive equalization and variable gain control in response to the transmitter entering the low-power mode; characterized in that the receiver is further configured to save variable gain control settings and equalization settings in response to the transmitter entering the low-power mode; and wherein the receiver is further configured to resume performing adaptive equalization and variable gain control, in response to the transmitter subsequently exiting the low-power mode, by applying the saved variable gain control settings and equalization settings.
An integrated drive generator comprising: an input drive shaft , a gear differential including a carrier shaft to be driven by said input drive shaft, and including a ring gear driving a generator; the input drive shaft comprising: a body extending from an end to a clutch face, and said clutch face including four clutch teeth extending away from a nominal surface of said body, said clutch face defining an inner bore of a first diameter (d 1), and said clutch face having an outer peripheral surface defining a second diameter (d 2 ); and characterized in that said first diameter is 2.97 cm (1.170 inches) +/-0.025 cm and said second diameter is 4.699 cm (1.845 inches) +/- 0.025 cm, and wherein said nominal surface is spaced from said end by a distance of 8.46 cm (3.330 inches) +/-0.025 cm. a body extending from an end to a clutch face, and said clutch face including four clutch teeth extending away from a nominal surface of said body, said clutch face defining an inner bore of a first diameter (d 1), and said clutch face having an outer peripheral surface defining a second diameter (d 2 ); and characterized in that said first diameter is 2.97 cm (1.170 inches) +/-0.025 cm and said second diameter is 4.699 cm (1.845 inches) +/- 0.025 cm, and wherein said nominal surface is spaced from said end by a distance of 8.46 cm (3.330 inches) +/-0.025 cm.
A wiper arm , comprising: an arm head ; a shank , comprising: a pair of side walls connected to a tip end of the arm head and facing each other; and a top wall connected to an upper end part of each of the side walls ; a tube for supplying a washer liquid ; and a bottom cover joined to a lower end part of each of the side walls and facing the top wall , the wiper arm being characterised in that the bottom cover comprises a body part in a plate shape and a wall part provided on the body part and protruding toward the top wall , the tube is disposed between the body part and the wall part and the shank , and comprises a first flat surface which is in contact with the body part , a second flat surface which is in contact with the wall part , and a shank side surface which is connected to the first flat surface and the second flat surface , and an ejection hole for ejecting the washer liquid is opened on the shank side surface of the tube . an arm head ; a shank , comprising: a pair of side walls connected to a tip end of the arm head and facing each other; and a top wall connected to an upper end part of each of the side walls ; a pair of side walls connected to a tip end of the arm head and facing each other; and a top wall connected to an upper end part of each of the side walls ; a tube for supplying a washer liquid ; and a bottom cover joined to a lower end part of each of the side walls and facing the top wall , the wiper arm being characterised in that the bottom cover comprises a body part in a plate shape and a wall part provided on the body part and protruding toward the top wall , the tube is disposed between the body part and the wall part and the shank , and comprises a first flat surface which is in contact with the body part , a second flat surface which is in contact with the wall part , and a shank side surface which is connected to the first flat surface and the second flat surface , and an ejection hole for ejecting the washer liquid is opened on the shank side surface of the tube .
Slider needle having a shaft which has a longitudinal direction, a hook region which has a catch space , which is partially bounded by a hook , and a guide region for a slider, the shaft having a cross-section, which is larger than a cross-section of the hook region , and a transition region which is asymmetrically formed is arranged between the hook region and the shank , characterized in that the transition region is asymmetrically formed with respect to at least two planes which run through the longitudinal axis of the shank.
Use of a fluorophore or fluorescent dye suspended in a thermoplastic polymer matrix to validate a thermal cycler, wherein the method comprises the steps of: providing suitable thermoplastic monomers; mixing the thermoplastics monomers with a suitable fluorophore or fluorescent dye; carrying out a polymerisation reaction to obtain a polymer comprising a fluorophore suspended substantially uniformly therein, wherein the fluorophore is suspended in the thermoplastic polymer matrix, wherein the fluorophore has a concentration in the thermoplastic polymer matrix below 10 -2 mol/L, and has fluorescence characteristics within a predetermined uncertainty budget, wherein the polymer matrix is selected from the group consisting of: poly methyl methacrylate (PMMA), polycarbonate (PC), poly oxymethylene (POM), chlorinated polyvinyl chloride (CPVC) or PVC/Acrylic copolymer, wherein the thermoplastic polymer matrix is cut to the shape of a PCR tube, further comprising the step of placing the fluorophore suspended in the thermoplastic polymer matrix in the thermal cycler having means to measure fluorescence, wherein the thermal cycler is validated by validating a fluorescence measurement obtained in the fluorescence measurement means of the thermal cycler within the predetermined uncertainty budget of the fluorophore to thereby make measurements traceable. providing suitable thermoplastic monomers; mixing the thermoplastics monomers with a suitable fluorophore or fluorescent dye; carrying out a polymerisation reaction to obtain a polymer comprising a fluorophore suspended substantially uniformly therein, wherein the fluorophore is suspended in the thermoplastic polymer matrix, wherein the fluorophore has a concentration in the thermoplastic polymer matrix below 10 -2 mol/L, and has fluorescence characteristics within a predetermined uncertainty budget, wherein the polymer matrix is selected from the group consisting of: poly methyl methacrylate (PMMA), polycarbonate (PC), poly oxymethylene (POM), chlorinated polyvinyl chloride (CPVC) or PVC/Acrylic copolymer, wherein the thermoplastic polymer matrix is cut to the shape of a PCR tube, further comprising the step of placing the fluorophore suspended in the thermoplastic polymer matrix in the thermal cycler having means to measure fluorescence, wherein the thermal cycler is validated by validating a fluorescence measurement obtained in the fluorescence measurement means of the thermal cycler within the predetermined uncertainty budget of the fluorophore to thereby make measurements traceable.
A method, comprising: providing a first substrate; and forming a first battery electrode on the first substrate, wherein forming the first battery electrode on the first substrate comprises: depositing a first layer of a first electrode active material on a first portion of a surface of the first substrate; and forming a first current collector that comprises a first conductive material, wherein forming the first current collector comprises depositing, using a thin film deposition process, the first conductive material on a surface of the first layer of the first electrode active material, the first conductive material being deposited over an edge of the first layer of the first electrode active material and onto a second portion of the surface of the first substrate, the second portion of the first substrate being adjacent to the first portion of the first substrate; and removing the first battery electrode from the first substrate, the first battery electrode comprising the first layer of the first electrode active material and the first current collector. providing a first substrate; and forming a first battery electrode on the first substrate, wherein forming the first battery electrode on the first substrate comprises: depositing a first layer of a first electrode active material on a first portion of a surface of the first substrate; and forming a first current collector that comprises a first conductive material, wherein forming the first current collector comprises depositing, using a thin film deposition process, the first conductive material on a surface of the first layer of the first electrode active material, the first conductive material being deposited over an edge of the first layer of the first electrode active material and onto a second portion of the surface of the first substrate, the second portion of the first substrate being adjacent to the first portion of the first substrate; and depositing a first layer of a first electrode active material on a first portion of a surface of the first substrate; and forming a first current collector that comprises a first conductive material, wherein forming the first current collector comprises depositing, using a thin film deposition process, the first conductive material on a surface of the first layer of the first electrode active material, the first conductive material being deposited over an edge of the first layer of the first electrode active material and onto a second portion of the surface of the first substrate, the second portion of the first substrate being adjacent to the first portion of the first substrate; and removing the first battery electrode from the first substrate, the first battery electrode comprising the first layer of the first electrode active material and the first current collector.
Intraocular pressure measuring and/or monitoring device comprising a contact lens presenting an inner surface and an outer surface , and a pressure sensor united with said contact lens and located such that it is applied against an eye of a user for sensing the intraocular pressure (IOP) of said eye when said contact lens is worn by said user, wherein said contact lens comprises a soft portion and a rigid portion , said rigid portion being adapted to at least partially rigidify a central portion of the inner surface of said contact lens so as to maintain said rigidified inner surface with a curvature radius adapted to flatten at least a portion of the eye surface in contact with the pressure sensor so as to reach a pressure equilibrium around the pressure sensor when said contact lens is worn by said user. a contact lens presenting an inner surface and an outer surface , and a pressure sensor united with said contact lens and located such that it is applied against an eye of a user for sensing the intraocular pressure (IOP) of said eye when said contact lens is worn by said user, wherein said contact lens comprises a soft portion and a rigid portion , said rigid portion being adapted to at least partially rigidify a central portion of the inner surface of said contact lens so as to maintain said rigidified inner surface with a curvature radius adapted to flatten at least a portion of the eye surface in contact with the pressure sensor so as to reach a pressure equilibrium around the pressure sensor when said contact lens is worn by said user.
An exhaust gas purification catalyst comprising a monolith substrate formed by a catalyst carrier and a catalyst coat layer coated on the monolith substrate, wherein the monolith substrate contains Pd supported on the catalyst carrier, the catalyst coat layer includes a downstream coat layer formed from an end surface on a downstream side relative to an exhaust gas flow direction in the exhaust gas purification catalyst, the downstream coat layer contains Rh, the downstream coat layer has a coating amount of 10 g/L to 90 g/L based on one liter of a volume of a part of the monolith substrate on which the downstream coat layer is coated, the exhaust gas purification catalyst has an exhaust gas purification catalyst upstream portion that is formed in a range of 45% or less of a whole length of the exhaust gas purification catalyst from an end surface on an upstream side relative to the exhaust gas flow direction in the exhaust gas purification catalyst and an exhaust gas purification catalyst downstream portion that is defined by a range excluding the exhaust gas purification catalyst upstream portion, and the exhaust gas purification catalyst upstream portion has a Pd concentration higher than a Pd concentration in the exhaust gas purification catalyst downstream portion. the monolith substrate contains Pd supported on the catalyst carrier, the catalyst coat layer includes a downstream coat layer formed from an end surface on a downstream side relative to an exhaust gas flow direction in the exhaust gas purification catalyst, the downstream coat layer contains Rh, the downstream coat layer has a coating amount of 10 g/L to 90 g/L based on one liter of a volume of a part of the monolith substrate on which the downstream coat layer is coated, the exhaust gas purification catalyst has an exhaust gas purification catalyst upstream portion that is formed in a range of 45% or less of a whole length of the exhaust gas purification catalyst from an end surface on an upstream side relative to the exhaust gas flow direction in the exhaust gas purification catalyst and an exhaust gas purification catalyst downstream portion that is defined by a range excluding the exhaust gas purification catalyst upstream portion, and the exhaust gas purification catalyst upstream portion has a Pd concentration higher than a Pd concentration in the exhaust gas purification catalyst downstream portion.
A saddle riding scooter-type vehicle, with a flow-straightening structure comprising: a front cowl (FC) that is disposed in front of a riding space (K2), wherein outer surfaces (m1) of the front cowl (FC) are provided with projections for generating prescribed turbulent flows in head winds flowing along the outer surfaces (m1), wherein each of the projections has a mountain shape having a protrusion apex portion (Zt) when viewed from a side orthogonal to a projection longitudinal direction across a pair of end portions , wherein a front side inclined portion ascending from a projection front end portion toward the protrusion apex portion (Zt) is provided on a front side of the projection in a vehicle forward-rearward direction, and a rear side inclined portion descending from the protrusion apex portion (Zt) toward a projection rear end portion is provided on a rear side of the projection in the vehicle forward-rearward direction, wherein either one of the front side inclined portion and the rear side inclined portion is shorter than the other in the projection longitudinal direction, wherein the front cowl (FC) includes leg shields (LS) which are disposed in front of leg disposition spaces (K3) on both sides of a lower portion in the riding space (K2), wherein the projections are disposed on the front surfaces (m1) in the leg shields (LS) facing a side in front of the vehicle, and wherein upper ends of the leg shields (LS) extend to a side above a seat surface of a seat . a front cowl (FC) that is disposed in front of a riding space (K2), wherein outer surfaces (m1) of the front cowl (FC) are provided with projections for generating prescribed turbulent flows in head winds flowing along the outer surfaces (m1), wherein each of the projections has a mountain shape having a protrusion apex portion (Zt) when viewed from a side orthogonal to a projection longitudinal direction across a pair of end portions , wherein a front side inclined portion ascending from a projection front end portion toward the protrusion apex portion (Zt) is provided on a front side of the projection in a vehicle forward-rearward direction, and a rear side inclined portion descending from the protrusion apex portion (Zt) toward a projection rear end portion is provided on a rear side of the projection in the vehicle forward-rearward direction, wherein either one of the front side inclined portion and the rear side inclined portion is shorter than the other in the projection longitudinal direction, wherein the front cowl (FC) includes leg shields (LS) which are disposed in front of leg disposition spaces (K3) on both sides of a lower portion in the riding space (K2), wherein the projections are disposed on the front surfaces (m1) in the leg shields (LS) facing a side in front of the vehicle, and wherein upper ends of the leg shields (LS) extend to a side above a seat surface of a seat .
A method of producing a biomatrix scaffold from a biological tissue selected from the group consisting of lung, thyroid, skin, pancreas, blood vessels, bladder, kidneys, brain, biliary tree, duodenum, abdominal aorta, iliac vein, heart and intestines, comprising: a) perfusing or homogenizing the biological tissue with a first basal medium, wherein the osmolality of said first medium is from 250 mOsm/kg to 350 mOsm/kg and said first medium is serum free and at neutral pH; then b) perfusing the biological tissue or extracting the homogenate of step (a) with a delipidating buffer comprising sodium deoxycholate and phospholipase A2 in said first medium; then c) perfusing the biological tissue or extracting the homogenate of step (b) with a buffer at a neutral pH and comprising a salt concentration from 2.0M NaCl to 5.0M, the concentration chosen to keep insoluble collagens identified in the biological tissue; then d) perfusing the biological tissue or extracting the homogenate of step (c) with RNase and DNase in a buffer; and then e) rinsing the biological tissue or homogenate of step (d) with a second medium that is at neutral pH, is serum-free and has an osomolality from 250 mOsm/kg to 350 mOsm/kg, thereby producing an intact or homogenized biomatrix scaffold from the biological tissue, said biomatrix scaffold retaining at least 95% of its original collagens and most collagen-associated matrix components and matrix bound growth factors, hormones and cytokines of the biological tissue. a) perfusing or homogenizing the biological tissue with a first basal medium, wherein the osmolality of said first medium is from 250 mOsm/kg to 350 mOsm/kg and said first medium is serum free and at neutral pH; then b) perfusing the biological tissue or extracting the homogenate of step (a) with a delipidating buffer comprising sodium deoxycholate and phospholipase A2 in said first medium; then c) perfusing the biological tissue or extracting the homogenate of step (b) with a buffer at a neutral pH and comprising a salt concentration from 2.0M NaCl to 5.0M, the concentration chosen to keep insoluble collagens identified in the biological tissue; then d) perfusing the biological tissue or extracting the homogenate of step (c) with RNase and DNase in a buffer; and then e) rinsing the biological tissue or homogenate of step (d) with a second medium that is at neutral pH, is serum-free and has an osomolality from 250 mOsm/kg to 350 mOsm/kg,
A manufacturing method of a tire including bead cores , a bead filler extending to an outer side in a tire-radial direction of the bead core , a carcass ply which extends from the bead core to another bead core , and is folded back around the bead core , and an electronic component , the method comprising the steps of: covering at least part of the electronic component by a coating rubber ; forming a recess of a shape corresponding to a shape of the coating rubber in the bead filler by shaving, compression molding and/or thermoforming; and after forming the recess, arranging a coating rubber covering at least part of the electronic component in the recess of the bead filler . covering at least part of the electronic component by a coating rubber ; forming a recess of a shape corresponding to a shape of the coating rubber in the bead filler by shaving, compression molding and/or thermoforming; and after forming the recess, arranging a coating rubber covering at least part of the electronic component in the recess of the bead filler .