mhurhangee/patent-ind-claim-en huggingface dataset:
A pigment-polymer complex comprising: a vinyl acrylic polymer including as polymerizable units at least one polymerizable phosphate surfactant and at least one linear or branched hydrophobic monomer polymerized into the backbone of the polymer; and an inorganic particle associated with the vinyl acrylic polymer forming the pigment-polymer complex; wherein the polymer or copolymer includes 0.5 to 5 weight percent of the polymerizable phosphate surfactant(s) and 5 to 20 weight percent of the linear or branched hydrophobic monomer(s), and the polymer or copolymer includes 60 to 80 weight percent of vinyl acetate and 10 to 25 percent of alkyl acrylate or alkyl methacrylate, wherein the linear or branched hydrophobic monomer(s) have a carbon chain length from C6 to C30, and wherein the alkyl acrylate or alkyl methacrylate has an alkyl ester portion containing from 1 to 5 carbon atoms. a vinyl acrylic polymer including as polymerizable units at least one polymerizable phosphate surfactant and at least one linear or branched hydrophobic monomer polymerized into the backbone of the polymer; and an inorganic particle associated with the vinyl acrylic polymer forming the pigment-polymer complex; wherein the polymer or copolymer includes 0.5 to 5 weight percent of the polymerizable phosphate surfactant(s) and 5 to 20 weight percent of the linear or branched hydrophobic monomer(s), and the polymer or copolymer includes 60 to 80 weight percent of vinyl acetate and 10 to 25 percent of alkyl acrylate or alkyl methacrylate, wherein the linear or branched hydrophobic monomer(s) have a carbon chain length from C6 to C30, and wherein the alkyl acrylate or alkyl methacrylate has an alkyl ester portion containing from 1 to 5 carbon atoms.
A motor control comprising a first inverter ; a first motor which is electrically connected to the first inverter ; at least one second inverter ; and at least one second motor which is electrically connected to the second inverter , with the inverters being configured to control the respective motors by means of at least a first and a second switching state (Z 0 , Z 7 ) in each case, wherein, when one inverter is switched over into the first switching state (Z 0 ), the inverters are configured to simultaneously switch over the other inverter into the second switching state (Z 7 ), with the inverters being configured to apply a voltage of zero to the respective motor in the first and second switching states (Z 0 , Z 7 ); and wherein the inverters are each connected to the respective motor by three electrical connections, with each connection being separately switchable to a high potential and to a low potential , characterized in that the inverters are configured to switch all the connections to the low potential in the first switching state (Z 0 ) and to switch all the connections to the high potential in the second switching state (Z 7 ). a first inverter ; a first motor which is electrically connected to the first inverter ; at least one second inverter ; and at least one second motor which is electrically connected to the second inverter , with the inverters being configured to control the respective motors by means of at least a first and a second switching state (Z 0 , Z 7 ) in each case,
A panel for tip clearance control adapted for being placed on a compressor or turbine casing covering an arc portion thereof, wherein the panel is formed by: - a first perforated sheet adapted for being arranged on said arc portion of the casing ; said first sheet defining two axes, a longitudinal axis (x-x') and another circumferential axis (y-y'), wherein said first perforated sheet further comprises a front end (2.1) and a rear end (2.2), both substantially parallel to the circumferential axis (y-y'); as well as two lateral ends (2.3, 2.4) substantially parallel to the longitudinal axis (x-x'); - a second sheet arranged on said first sheet and configured for being attached in a leak-tight manner at its front end (2.1) and rear end (2.2), leaving a gap between both sheets ; and - a third sheet arranged between the first sheet and second sheet , configuring respective gaps with both sheets such that the third sheet forms together with the second sheet a distribution chamber (X), whereas it forms with the first sheet an impingement chamber (Y), both chambers (X, Y) extending from one lateral end (1.1) of the panel to the other (1.2); wherein said third sheet comprises at least one hole (4.1) for the passage of fluid between both chambers (X, Y) ; characterised in that the panel further comprises a closure element together with a sealing element (5.2.1, 5.4) at least at one of the lateral ends (1.1, 1.2) of the panel, said closure element being configured for sealing an end of the impingement chamber (Y) between the first sheet and third sheet , while at the same time allowing the passage of air to or from the distribution chamber (X) of an adjacent panel between the second sheet and third sheet ; whereas the sealing element (5.2.1, 5.4) is configured for contacting such adjacent panel such that it seals against fluid leakages between the second sheet and third sheet , the sealing element (5.2.1, 5.4) being further configured for allowing relative movement between both adjoining panels . - a first perforated sheet adapted for being arranged on said arc portion of the casing ; said first sheet defining two axes, a longitudinal axis (x-x') and another circumferential axis (y-y'), wherein said first perforated sheet further comprises a front end (2.1) and a rear end (2.2), both substantially parallel to the circumferential axis (y-y'); as well as two lateral ends (2.3, 2.4) substantially parallel to the longitudinal axis (x-x'); - a second sheet arranged on said first sheet and configured for being attached in a leak-tight manner at its front end (2.1) and rear end (2.2), leaving a gap between both sheets ; and - a third sheet arranged between the first sheet and second sheet , configuring respective gaps with both sheets such that the third sheet forms together with the second sheet a distribution chamber (X), whereas it forms with the first sheet an impingement chamber (Y), both chambers (X, Y) extending from one lateral end (1.1) of the panel to the other (1.2); wherein said third sheet comprises at least one hole (4.1) for the passage of fluid between both chambers (X, Y) ;
Firearm silencer, including a substantially cylindrical outer sheath having a first end and a second end , a barrel hole in the first end of the outer sheath , a damping element inside said outer sheath and connection means for connecting the silencer to a firearm barrel , which connection means include at least one clamping surface adapted to be pressed against the outer surface of said barrel , wherein said connection means comprise a locking frame , at least one mounting lever hingedly connected to the locking frame and a twisting device functionally connected to the mounting lever for turning the mounting lever , and at least one clamping surface is integrated to the mounting lever .
A method for casting a fibre reinforced composite product having a reinforcing fibre substrate , said method comprising the steps of; - providing a mold , said mold having at least a first and a second set of mold inlets for injecting composite fluid into said mold and at least one mold outlet connectable to a negative pressure source, such as a vacuum pump , each set of mold inlets having at least a first and a second mold inlet , said second mold inlet of said first set of mold inlets and said second mold inlet of said second set of mold inlets are positioned closer to said at least one mold outlet than said first mold inlet of said first set of mold inlets and said first mold inlet of said second set of mold inlets , - placing a reinforcing fibre substrate into said mold , - substantially simultaneously start injecting said composite fluid from at least said first mold inlet of said first set of mold inlets and; said first mold inlet of said second set of mold inlets and, - subsequently thereafter substantially simultaneously start injecting composite fluid from said second mold inlet of said first set of mold inlets and said second mold inlet of said second set of mold inlets , characterized in that said mold has at least a first and a second distribution channel for distribution of said composite fluid, whereby a first mold inlet of said first set of mold inlets is arranged at said first distribution channel , and a first mold inlet of said second set of mold inlets is also arranged at said first distribution channel . - providing a mold , said mold having at least a first and a second set of mold inlets for injecting composite fluid into said mold and at least one mold outlet connectable to a negative pressure source, such as a vacuum pump , each set of mold inlets having at least a first and a second mold inlet , said second mold inlet of said first set of mold inlets and said second mold inlet of said second set of mold inlets are positioned closer to said at least one mold outlet than said first mold inlet of said first set of mold inlets and said first mold inlet of said second set of mold inlets , - placing a reinforcing fibre substrate into said mold , - substantially simultaneously start injecting said composite fluid from at least said first mold inlet of said first set of mold inlets and; said first mold inlet of said second set of mold inlets and, - subsequently thereafter substantially simultaneously start injecting composite fluid from said second mold inlet of said first set of mold inlets and said second mold inlet of said second set of mold inlets , characterized in that
A catalyst suitable for use in the hydrogenation of carbon dioxide-containing gas, said catalyst consisting of potassium promoted spinel phase of the following formula: K/[Fe 2+ (Fe 3+ y Al 3+ 1-y ) 2 O 4 ] Formula wherein y is from 0.25 to 0.75, wherein the catalyst exhibits surface area of not less than 80 m 2 /gram by the BET method, and optionally a binder, and wherein the potassium is applied onto the surface of said spinel.
A method for the detection of anti-HCMV neutralizing antibodies, said method comprising steps of: (i) mixing (a) heat-inactivated serum from a rabbit that has been immunized with an HCMV candidate vaccine with (b) an HCMV comprising a fluorescent moiety, wherein the HCMV comprising a fluorescent moiety comprises a gH/gL/UL128/UL130/UL131 complex, to form a mixture; (ii) adding 2.5% rabbit complement to the mixture from (i); (iii) contacting a host cell that is susceptible to infection by HCMV, wherein said host cell is a retinal pigmented epithelial cell (ARPE-19), under conditions that allow infection with the mixture in the presence of the rabbit complement of (ii), preferably including an incubation of at least 1 hour, at least 2 hours, at least 3 hours, at least 4 hours, at least 5 hours, at least 6 hours, at least 7 hours, or at least 8 hours; (iv) assessing a fluorescence level of the host cell that has been contacted with the mixture by flow cytometry; and (v) determining a level of infection of the host cell based on the assessed fluorescence level. (i) mixing (a) heat-inactivated serum from a rabbit that has been immunized with an HCMV candidate vaccine with (b) an HCMV comprising a fluorescent moiety, wherein the HCMV comprising a fluorescent moiety comprises a gH/gL/UL128/UL130/UL131 complex, to form a mixture; (ii) adding 2.5% rabbit complement to the mixture from (i); (iii) contacting a host cell that is susceptible to infection by HCMV, wherein said host cell is a retinal pigmented epithelial cell (ARPE-19), under conditions that allow infection with the mixture in the presence of the rabbit complement of (ii), preferably including an incubation of at least 1 hour, at least 2 hours, at least 3 hours, at least 4 hours, at least 5 hours, at least 6 hours, at least 7 hours, or at least 8 hours; (iv) assessing a fluorescence level of the host cell that has been contacted with the mixture by flow cytometry; and (v) determining a level of infection of the host cell based on the assessed fluorescence level.
A nitric oxide (NO) generating formulation, comprising: an S-nitrosothiol (RSNO) powder; a salt; and an additive to control or accelerate a rate of release of NO from RSNO after the RSNO powder, the salt, and the additive are dissolved into a liquid carrier, wherein a) the NO generating formulation is an antimicrobial sinonasal treatment formulation, and the salt is selected from the group consisting of sodium chloride, sodium bicarbonate, calcium chloride, a sodium phosphate buffer, a potassium phosphate buffer, and combinations thereof; or b) the NO generating formulation is a catheter lock solution formulation, and the salt is selected from the group consisting of sodium chloride, sodium bicarbonate, a sodium phosphate buffer, a potassium phosphate buffer, and combinations thereof. an S-nitrosothiol (RSNO) powder; a salt; and an additive to control or accelerate a rate of release of NO from RSNO after the RSNO powder, the salt, and the additive are dissolved into a liquid carrier, wherein a) the NO generating formulation is an antimicrobial sinonasal treatment formulation, and the salt is selected from the group consisting of sodium chloride, sodium bicarbonate, calcium chloride, a sodium phosphate buffer, a potassium phosphate buffer, and combinations thereof; or b) the NO generating formulation is a catheter lock solution formulation, and the salt is selected from the group consisting of sodium chloride, sodium bicarbonate, a sodium phosphate buffer, a potassium phosphate buffer, and combinations thereof. a) the NO generating formulation is an antimicrobial sinonasal treatment formulation, and the salt is selected from the group consisting of sodium chloride, sodium bicarbonate, calcium chloride, a sodium phosphate buffer, a potassium phosphate buffer, and combinations thereof; or b) the NO generating formulation is a catheter lock solution formulation, and the salt is selected from the group consisting of sodium chloride, sodium bicarbonate, a sodium phosphate buffer, a potassium phosphate buffer, and combinations thereof.
Perforated disk having the following features: - the perforated disk made of metal has main surfaces on disk sides facing away, - in the region of the one first main surface the perforated disk is made of aluminum or an aluminum alloy, - in the region of the other second main surface the perforated disk exhibits a layer of copper or a copper alloy, characterized by the following feature: - the perforated disk has in the region of the disk side exhibiting the first main surface elevations which project beyond the first main surface of the perforated disk on this disk side. - the perforated disk is made of aluminum or an aluminum alloy , - the elevations are configured as embossments, wherein the perforated disk has depressions produced during forming on the disk side with the second main surface , and embossments produced during forming on the disk side exhibiting the first main surface . - the perforated disk made of metal has main surfaces on disk sides facing away, - in the region of the one first main surface the perforated disk is made of aluminum or an aluminum alloy, - in the region of the other second main surface the perforated disk exhibits a layer of copper or a copper alloy, characterized by the following feature: - the perforated disk has in the region of the disk side exhibiting the first main surface elevations which project beyond the first main surface of the perforated disk on this disk side. - the perforated disk is made of aluminum or an aluminum alloy , - the elevations are configured as embossments, wherein the perforated disk has depressions produced during forming on the disk side with the second main surface , and embossments produced during forming on the disk side exhibiting the first main surface . - the perforated disk has in the region of the disk side exhibiting the first main surface elevations which project beyond the first main surface of the perforated disk on this disk side. - the perforated disk is made of aluminum or an aluminum alloy , - the elevations are configured as embossments, wherein the perforated disk has depressions produced during forming on the disk side with the second main surface , and embossments produced during forming on the disk side exhibiting the first main surface .
A method for training a classifier for identifying a brain condition of a subject, the method comprising: receiving image data obtained from a plurality of subjects, wherein the image data is acquired during an acquisition period following administration of at least one radioactive tracer and prior to the radioactive tracer reaching equilibrium, wherein the image data includes at least one of a Positron Emission Tomography ("PET") data, or a Single Photon Emission Computed Tomography ("SPECT") data; defining a plurality of brain condition classes using the image data associated with one or more time frames during the acquisition period; processing the image data to generate signatures corresponding to each of the plurality brain condition classes; and training a canonical variate classifier using the signatures. receiving image data obtained from a plurality of subjects, wherein the image data is acquired during an acquisition period following administration of at least one radioactive tracer and prior to the radioactive tracer reaching equilibrium, wherein the image data includes at least one of a Positron Emission Tomography ("PET") data, or a Single Photon Emission Computed Tomography ("SPECT") data; defining a plurality of brain condition classes using the image data associated with one or more time frames during the acquisition period; processing the image data to generate signatures corresponding to each of the plurality brain condition classes; and training a canonical variate classifier using the signatures.
Method for producing a component by further forming of a preformed contour of a blank, the blank, which is cut in advance from a strip or a metal sheet at room temperature, being subjected, after further manufacturing steps implemented at ambient temperature, such as e.g. stamping or cutting operations in order to obtain recesses or through-openings, in selected edge regions work-hardened by the stamping or cutting operations, to a first forming at ambient temperature in order to obtain a preformed contour, characterised in that optionally, in fact, the edge regions provided for the forming but at least the edge regions already subjected to the first forming are heated for a duration of at most 10 seconds to a temperature of at least 600°C, and the edge regions are subjected, at any time after this heat treatment, to a second forming or further formings at ambient temperature with respectively preceding heat treatments.
An image acquisition system comprising: a radiation source configured to output radiation toward an object ; a rotating stage configured to rotate the object around a rotation axis (L); a radiation camera having an input surface to which the radiation transmitted through the object is input and an image sensor capable of time delay integration, TDI, control and configured to capture an image of the input radiation and output image data; and an image processing apparatus configured to generate a radiographic image of the object at an imaging plane (P) based on the image data, wherein an angle (β) formed between the rotation axis (L) of the rotating stage and the input surface of the radiation camera is an acute angle and is set in accordance with a focus-object distance, FOD, which is a distance between the radiation source and an imaging plane (P) in the object such that a ratio between an enlargement factor at an inner peripheral portion of the imaging plane (P) of the object and an enlargement factor at an outer peripheral portion of the imaging plane (P) of the object are reciprocal to a ratio between a speed of the inner peripheral portion and a speed of the outer peripheral portion, and the radiation camera is configured to perform TDI control in the image sensor in synchronization with a rotational speed of the object rotated by the rotating stage . a radiation source configured to output radiation toward an object ; a rotating stage configured to rotate the object around a rotation axis (L); a radiation camera having an input surface to which the radiation transmitted through the object is input and an image sensor capable of time delay integration, TDI, control and configured to capture an image of the input radiation and output image data; and an image processing apparatus configured to generate a radiographic image of the object at an imaging plane (P) based on the image data, wherein an angle (β) formed between the rotation axis (L) of the rotating stage and the input surface of the radiation camera is an acute angle and is set in accordance with a focus-object distance, FOD, which is a distance between the radiation source and an imaging plane (P) in the object such that a ratio between an enlargement factor at an inner peripheral portion of the imaging plane (P) of the object and an enlargement factor at an outer peripheral portion of the imaging plane (P) of the object are reciprocal to a ratio between a speed of the inner peripheral portion and a speed of the outer peripheral portion, and the radiation camera is configured to perform TDI control in the image sensor in synchronization with a rotational speed of the object rotated by the rotating stage .
A brush holder comprising a base , a lever and a brush mount , the brush mount is held by the lever at the base , wherein the lever is pivotably connected by a base pivot to the base , the base pivot having a base pivot axis , the brush mount is connected to the lever by a brush mount pivot , and a spring is provided between the base and the lever , wherein the brush mount comprises at least a first brush fixation means and a second brush fixation means wherein the brush mount pivot is between the first brush fixation means and the second brush fixation means , characterized in that the distance between the first brush fixation means and the brush mount pivot is larger than the distance between the second brush fixation means and the brush mount pivot . the lever is pivotably connected by a base pivot to the base , the base pivot having a base pivot axis , the brush mount is connected to the lever by a brush mount pivot , and a spring is provided between the base and the lever , wherein the brush mount comprises at least a first brush fixation means and a second brush fixation means wherein the brush mount pivot is between the first brush fixation means and the second brush fixation means , characterized in that the distance between the first brush fixation means and the brush mount pivot is larger than the distance between the second brush fixation means and the brush mount pivot .