mhurhangee/patent-ind-claim-en huggingface dataset:
A catalyzed soot filter, comprising a wall flow substrate comprising an inlet end, an outlet end, a substrate axial length extending between the inlet end and the outlet end, and a plurality of passages defined by internal walls of the wall flow filter substrate; wherein the plurality of passages comprise inlet passages having an open inlet end and a closed outlet end, and outlet passages having a closed inlet end and an open outlet end; wherein a given inlet passage, an adjacent outlet passage, and the internal wall between said inlet and said outlet passage define an overall passage; wherein the internal walls of at least 20 % of the length of the overall passages are at least partially coated with a first and a second coating; wherein the internal wall of a given at least partially coated overall passage comprises the first coating that extends from the open inlet end to a first coating end, thereby defining a first coating length, wherein the first coating length is x % of the substrate axial length, with 20 ≤ x < 100; wherein said internal wall of said overall passage further comprises the second coating located downstream of the first coating, said second coating having a second coating length of y % of the substrate axial length, with 20 ≤ y < 100, wherein the second coating extends from the open outlet end to a second coating end, thereby defining the second coating length of y % of the substrate axial length; wherein the first and the second coating overlap in length by at least 20 % of the substrate axial length; wherein the first coating comprises an oxidation catalyst comprising platinum (Pt) and optionally palladium (Pd) and wherein the weight ratio of Pt:Pd in the first coating is in the range of from 1:0 to greater than 1:1; wherein the second coating comprises an oxidation catalyst comprising Pd and optionally Pt, wherein the Pt concentration in the second coating is lower than the Pt concentration in the first coating and wherein the weight ratio of Pt:Pd in the second coating is in the range of from 1:1 to 0:1; wherein the first coating and the second coating are present on the wall flow substrate at a coating loading ratio in the range of from 0.75 to 1.25, calculated as ratio of the loading of the first coating (in g/inch 3 (g/(2.54 cm) 3 )) : loading of the second coating (in g/inch 3 (g/(2.54 cm) 3 )), wherein the loading of the first coating is in the range of from 0.05 to 1 g/inch 3 (g/(2.54 cm) 3 ), and wherein the loading of the second coating is in the range of from 0.05 to 1 g/inch 3 (g/(2.54 cm) 3 ).
A tumor sealant comprising a particle comprising a superabsorbent polymer compound as a base material, for use in a method of treating a solid malignant tumor in a subject having the solid malignant tumor, wherein 70% or more of the total particles have a particle size of 20 nm to 500nm, as measured by a dynamic light scattering method; wherein the particle can swell by getting in contact with water in a body of the subject and the swelling ratio of the particle is at least 2 to 1,000 times of the weight or volume of its dried base material; wherein, in the method, the tumor sealant is introduced, using a syringe or a microcatheter, to perform embolus of tumor and/or prevent blood-flow from the artery in the vicinity of the tumor; and wherein, in the method, the particle permeates through gaps between endothelial cells of tumor vessels to accumulate in tumor tissue out of the blood vessels and then swells by getting in contact with water in the body of the subject to form a gel composition, thereby blocking the supply of oxygen and nutrition to tumor and transmission of inducing factors from the tumor to lead the tumor cells to necrosis. wherein 70% or more of the total particles have a particle size of 20 nm to 500nm, as measured by a dynamic light scattering method; wherein the particle can swell by getting in contact with water in a body of the subject and the swelling ratio of the particle is at least 2 to 1,000 times of the weight or volume of its dried base material; wherein, in the method, the tumor sealant is introduced, using a syringe or a microcatheter, to perform embolus of tumor and/or prevent blood-flow from the artery in the vicinity of the tumor; and wherein, in the method, the particle permeates through gaps between endothelial cells of tumor vessels to accumulate in tumor tissue out of the blood vessels and then swells by getting in contact with water in the body of the subject to form a gel composition, thereby blocking the supply of oxygen and nutrition to tumor and transmission of inducing factors from the tumor to lead the tumor cells to necrosis.
A method of producing a casting mold, wherein a molding material mixture in a wet state having a water content of not less than 1.0% by mass comprising at least; (a) a refractory aggregate, (b) a binder including a water glass and (c) a carbonate, and optionally a borate is filled and held within a forming mold, which forming mold is preheated to a temperature of 120°C-200°C before the refractory aggregate is filled within the forming mold, so that the molding material mixture is cured, wherein the carbonate and borate, if present, is used in an amount of 1-50 parts by mass with respect to 100 parts by mass of the water glass, and wherein the refractory aggregate is coated with the binder and carbonate and borate, if present, to form a coating. (a) a refractory aggregate, (b) a binder including a water glass and (c) a carbonate, and optionally a borate is filled and held within a forming mold, which forming mold is preheated to a temperature of 120°C-200°C before the refractory aggregate is filled within the forming mold, so that the molding material mixture is cured, wherein the carbonate and borate, if present, is used in an amount of 1-50 parts by mass with respect to 100 parts by mass of the water glass, and wherein the refractory aggregate is coated with the binder and carbonate and borate, if present, to form a coating. is filled and held within a forming mold, which forming mold is preheated to a temperature of 120°C-200°C before the refractory aggregate is filled within the forming mold, so that the molding material mixture is cured, wherein the carbonate and borate, if present, is used in an amount of 1-50 parts by mass with respect to 100 parts by mass of the water glass, and wherein the refractory aggregate is coated with the binder and carbonate and borate, if present, to form a coating.
A computer-implemented method for estimating remaining useful life of a bearing , the method comprising: receiving , by a processing unit , a request for analysing a defect in the bearing from a source , wherein the request comprises operational data associated with the bearing; monitoring an impact of the defect on the bearing over a period of time, wherein the impact of the defect refers to deviations from normal operation of the bearing resulting from the defect; determining a time period during which the impact of the defect on the bearing is higher than a threshold range, using a machine learning model; computing a severity of the impact associated with the defect during the time period by computing a defect size corresponding to the defect based on a duration of the time period; and determining a remaining useful life of the bearing based on the severity and the operational data during the time period; and generating a notification indicating the remaining useful life of the bearing on an output device . receiving , by a processing unit , a request for analysing a defect in the bearing from a source , wherein the request comprises operational data associated with the bearing; monitoring an impact of the defect on the bearing over a period of time, wherein the impact of the defect refers to deviations from normal operation of the bearing resulting from the defect; determining a time period during which the impact of the defect on the bearing is higher than a threshold range, using a machine learning model; computing a severity of the impact associated with the defect during the time period by computing a defect size corresponding to the defect based on a duration of the time period; and determining a remaining useful life of the bearing based on the severity and the operational data during the time period; and generating a notification indicating the remaining useful life of the bearing on an output device .
An aluminum brake caliper manufacturing method using die casting for manufacturing an aluminum brake caliper provided with opposing portions opposed to each other with a hollow portion forming a disc housing space interposed in between, and connecting portions connecting the opposing portions at two sides thereof, wherein two cylinder forming portions made from a through-hole into which to slidably insert and fit a piston is provided in one of the opposing portions , and another two cylinder forming portions made from a recessed portion is provided in a part of the other opposing portion which is opposed to the plurality of cylinder forming portions , and the through-hole and the recessed portion are formed by use of a core, the method comprising: a die casting step (S-2) of performing casting by pouring molten metal of an aluminum alloy from a gate for the molten metal formed in the opposing portion including the recessed portion via the connecting portions and a bridge connecting the two opposing portions ; and a bridge removing step (S-4) of removing the bridge , wherein the recessed portions are formed respectively in two places in a center portion of the housing space , wherein the bridge is situated in an intermediate portion between the two recessed portions, and wherein the bridge is formed on a straight line from the gate . a die casting step (S-2) of performing casting by pouring molten metal of an aluminum alloy from a gate for the molten metal formed in the opposing portion including the recessed portion via the connecting portions and a bridge connecting the two opposing portions ; and a bridge removing step (S-4) of removing the bridge ,
A user computing device , the user computing device comprising: a housing ; a physiological signal sensor configured to generate a first signal relating one or more characteristics associated with a user and arranged to measure a signal from outside the housing ; a transducer configured to generate a noise signature signal based on detection of one or more noise sources; and one or more control circuits configured to: modify the first signal based on the noise signature signal to generate a modified first signal; and determine one or more characteristics associated with a user based on the modified first signal, wherein the transducer includes an audio sensor arranged within the housing and situated to detect a noise source in the form of audio signals internal to the user computing device generated by lateral movement of the user computing device along the user's skin, characterised in that the physiological signal sensor is a dry electrode enabled to contact a user's skin. a housing ; a physiological signal sensor configured to generate a first signal relating one or more characteristics associated with a user and arranged to measure a signal from outside the housing ; a transducer configured to generate a noise signature signal based on detection of one or more noise sources; and one or more control circuits configured to: modify the first signal based on the noise signature signal to generate a modified first signal; and determine one or more characteristics associated with a user based on the modified first signal, wherein the transducer includes an audio sensor arranged within the housing and situated to detect a noise source in the form of audio signals internal to the user computing device generated by lateral movement of the user computing device along the user's skin, characterised in that the physiological signal sensor is a dry electrode enabled to contact a user's skin.
An apparatus for feeding back channel information of an unlicensed band, applicable to user equipment - UE - , the apparatus comprising: a determining unit configured to determine a subframe for feeding back channel information of an unlicensed band according to configuration of an eNB , and determine a subframe for measuring channel quality according to the subframe for feeding back channel information; a detecting unit configured to detect whether there exists a predefined reference signal in the subframe for measuring channel quality; and a feedback unit configured to, when it is detected by the detecting unit that there exists a predefined reference signal in the subframe for measuring channel quality, report a channel quality measurement result of the subframe for measuring channel quality at the subframe for feeding back channel information; wherein the feedback unit is configured to report the channel quality measurement result via a physical uplink control channel, PUCCH, or a physical uplink shared channel, PUSCH, of a primary cell connected to the UE.
A polypeptide which is a variant of a parent polypeptide comprising an Fc region of mouse IgG1, wherein Ser at position 239 (EU numbering) is substituted with Asp and the polypeptide further comprises the substitution of an amino acid at position 230 by Glu, the substitution of an amino acid at position 231 by Pro, substitution of an amino acid at position 232 by Asn, and the substitution of an amino acid at position 238 by Glu, wherein all positions are indicated by EU numbering, and wherein (i) the polypeptide has a ratio of [KD value for mouse FcyRIII] / [KD value for mouse FcγRII] of 6 or more; or (ii) the binding selectivity of the polypeptide for mouse FcyRII relative to mouse FcyRIII is improved by 5 times or more compared with that of the parent polypeptide. (i) the polypeptide has a ratio of [KD value for mouse FcyRIII] / [KD value for mouse FcγRII] of 6 or more; or (ii) the binding selectivity of the polypeptide for mouse FcyRII relative to mouse FcyRIII is improved by 5 times or more compared with that of the parent polypeptide.
A control unit for controlling connection establishment between a transmitter and a plurality of receivers (60; 62), the control unit comprising an interface configured to communicate with a plurality of receivers (60; 62); and processing circuitry configured to control the interface and to: generate identification information for establishing a connection between a transmitter and a receiver (60; 62) of the plurality of receivers (60; 62); and to transmit the identification information to the plurality of receivers (60; 62), to enable the plurality of receivers (60; 62) to reuse the same identification information for connecting to the transmitter. generate identification information for establishing a connection between a transmitter and a receiver (60; 62) of the plurality of receivers (60; 62); and to transmit the identification information to the plurality of receivers (60; 62), to enable the plurality of receivers (60; 62) to reuse the same identification information for connecting to the transmitter.
Door unit for a vehicle , comprising: a door which is configured, in a closed position, to cover an opening in the vehicle and to delimit a vehicle interior from a vehicle environment ; a pressure compensation flap which is configured, in a sealing position, to cover a pressure compensation opening in the door and, in a pressure compensation position, to at least partially release the pressure compensation opening ; a locking element which is configured, in a locking state, to lock the door in the closed position and, in an unlocking state, to unlock the door ; and an actuation mechanism which is configured, during a movement of the pressure compensation flap from the pressure compensation position into an open position, to move the locking element from the locking state into the unlocking state, characterized in that the door unit comprises a blocking element which is configured, in the sealing position of the pressure compensation flap , to block a movement of the locking element from the locking state into the unlocking state, wherein the blocking element is arranged on the pressure compensation flap . a door which is configured, in a closed position, to cover an opening in the vehicle and to delimit a vehicle interior from a vehicle environment ; a pressure compensation flap which is configured, in a sealing position, to cover a pressure compensation opening in the door and, in a pressure compensation position, to at least partially release the pressure compensation opening ; a locking element which is configured, in a locking state, to lock the door in the closed position and, in an unlocking state, to unlock the door ; and an actuation mechanism which is configured, during a movement of the pressure compensation flap from the pressure compensation position into an open position, to move the locking element from the locking state into the unlocking state, characterized in that the door unit comprises a blocking element which is configured, in the sealing position of the pressure compensation flap , to block a movement of the locking element from the locking state into the unlocking state, wherein the blocking element is arranged on the pressure compensation flap .
An outboard motor comprising: an engine including a cylinder configured to reciprocate in a horizontal direction; a cowling that covers the engine ; and a control unit divided into an engine control unit including a first controller including a semiconductor device and a power supply control unit configured or programmed to communicate with the engine control unit and including a second controller including a semiconductor device; wherein one of the engine control unit and the power supply control unit is mounted on a first side surface of the engine , characterized in that the other of the engine control unit and the power supply control unit is mounted on an upper surface of the engine . an engine including a cylinder configured to reciprocate in a horizontal direction; a cowling that covers the engine ; and a control unit divided into an engine control unit including a first controller including a semiconductor device and a power supply control unit configured or programmed to communicate with the engine control unit and including a second controller including a semiconductor device; wherein one of the engine control unit and the power supply control unit is mounted on a first side surface of the engine , characterized in that the other of the engine control unit and the power supply control unit is mounted on an upper surface of the engine .
A back pan cooling assembly for an electronic display having a rear pan , the assembly comprising: a cooling back pan positioned behind the rear pan ; a gap defined by the space between the cooling back pan and the rear pan ; a rear cover positioned on the cooling back pan to define a rear compartment which is sealed to prevent ambient air from entering the rear compartment; a port in the rear cover which accepts ambient gas; at least one fan , the port being in gaseous communication with the fan , the fan being oriented such that the ambient air is drawn through the port and exhausted out of the gap ; wherein the fan is positioned to cause a flow of ambient air through the gap ; and an electronic component for driving the electronic display placed in the rear compartment and in conductive thermal communication with the cooling back pan wherein: the fan is sealed within the cooling back pan such that ambient air is not permitted to contact the electronic component . a cooling back pan positioned behind the rear pan ; a gap defined by the space between the cooling back pan and the rear pan ; a rear cover positioned on the cooling back pan to define a rear compartment which is sealed to prevent ambient air from entering the rear compartment; a port in the rear cover which accepts ambient gas; at least one fan , the port being in gaseous communication with the fan , the fan being oriented such that the ambient air is drawn through the port and exhausted out of the gap ; wherein the fan is positioned to cause a flow of ambient air through the gap ; and an electronic component for driving the electronic display placed in the rear compartment and in conductive thermal communication with the cooling back pan wherein: the fan is sealed within the cooling back pan such that ambient air is not permitted to contact the electronic component .
An implantable medical device , comprising: a sensing device for sensing a magnetic field (M); and a processing device configured to detect a presence of an MRI device based on measurement values (S) obtained from the sensing device ; wherein the processing device is configured to conclude that an MRI device is present if a multiplicity of measurement values (S) obtained from the sensing device indicates an increase of a strength of the magnetic field (M), characterized in that the sensing device is configured to conduct measurements at a specified sampling rate in between 1 Hz and 50 Hz, in particular at 4 Hz, and to provide measurement values (S) at the specified sampling rate, wherein the processing device is configured to increment a counter value (C) if a measurement value (S) indicates an increase of the strength of the magnetic field (M) and to reset the counter value (C) to a start value if the counter value (C) is not increased in a predefined period of time.
A method for handling flat material and/or film material , which is wound onto rolls and serves as packaging material for the packaging of piece goods, bundles, or the like sets of articles, in which method, for the purpose of maintaining a packaging operation, an at least partially unwound and/or depleted roll is removed from at least one mounting position or installation position (EB1; EB2) of a packaging machine , and is in each instance replaced with a new roll of flat material and/or film material by the externally arranged layer of a new roll being extracted near or in the area of the layer's free end after each positioning of a new roll , and, for the purpose of forming an uninterrupted material web , by being attached to a section of a material web that is being guided into a packaging line, while the material web that is extracted from the at least partially unwound and/or used up roll is previously, simultaneously, or subsequently separated from the material web that is being guided into the packaging line, and wherein, prior to the in each instance at least partially unwound and/or used up roll being removed from the packaging machine , a material web remainder leading to a separating location is at least partially wound onto the at least partially unwound and/or used up roll by return rotation of the roll opposite to a direction of unwinding rotation.
A rotor of a member of a turbomachine , for example a rotor of a turbine , said rotor comprising: - a first element , - a second element , defining with the first element a ventilation cavity , and - a spacer , added and fixed between the first element and the second element and comprising a series of through-passages configured to allow an injection of cooling fluid (F) into the ventilation cavity , said spacer comprising a radially outer edge opening into the ventilation cavity and a radially inner edge opening at the first element , away from the ventilation cavity , the rotor being characterized in that each passage comprises a through-hole formed in the spacer and opening at the first element away from the ventilation cavity , and a slot extending between the through-hole and the radially outer edge , a section of the through-hole being larger than a section of the slot . - a first element , - a second element , defining with the first element a ventilation cavity , and - a spacer , added and fixed between the first element and the second element and comprising a series of through-passages configured to allow an injection of cooling fluid (F) into the ventilation cavity , said spacer comprising a radially outer edge opening into the ventilation cavity and a radially inner edge opening at the first element , away from the ventilation cavity ,