mhurhangee/patent-ind-claim-en huggingface dataset:
Microphone circuit for linearising the proximity effect in a dynamic directional microphone, characterised in that the microphone circuit has at least one inductive impedance element which can be connected in parallel with the microphone capsule .
A system for electricity generation, comprising: an energy storage subsystem including at least one air storage vessel arranged in a borehole made in the ground, and configured to store energy in the form of compressed air, said at least one air storage vessel being surrounded by a compacted and thermally isolated filling material filling a space between walls of said at least one air storage vessel and walls of the borehole to maintain the compressed air during storage at a temperature greater than a temperature of ambient air in the atmosphere; and an electricity generation subsystem including an airlift pumping system pneumatically coupled to said at least one air storage vessel of the energy storage subsystem and a hydro-electric power system driven by the airlift pumping system , and said electricity generation subsystem being configured to produce electricity by utilizing the compressed air stored in the energy storage subsystem at the temperature greater than the temperature of ambient air in the atmosphere. an energy storage subsystem including at least one air storage vessel arranged in a borehole made in the ground, and configured to store energy in the form of compressed air, said at least one air storage vessel being surrounded by a compacted and thermally isolated filling material filling a space between walls of said at least one air storage vessel and walls of the borehole to maintain the compressed air during storage at a temperature greater than a temperature of ambient air in the atmosphere; and an electricity generation subsystem including an airlift pumping system pneumatically coupled to said at least one air storage vessel of the energy storage subsystem and a hydro-electric power system driven by the airlift pumping system , and said electricity generation subsystem being configured to produce electricity by utilizing the compressed air stored in the energy storage subsystem at the temperature greater than the temperature of ambient air in the atmosphere.
A composition comprising: (a) Aprepitant, (b) Carboplatin, Cisplatin or Oxaliplatin, and (c) a pharmaceutically acceptable carrier, for use in the treatment of cancer in a mammal, wherein said treatment comprises administration of Aprepitant at a dose between 5 and 10 mg/kg of weight per day. (a) Aprepitant, (b) Carboplatin, Cisplatin or Oxaliplatin, and (c) a pharmaceutically acceptable carrier, for use in the treatment of cancer in a mammal, wherein said treatment comprises administration of Aprepitant at a dose between 5 and 10 mg/kg of weight per day.
A composite insulating material comprising: two or more blankets, wherein each blanket includes a substrate and aerogel formed inside and on a surface of the substrate; and a super absorbent polymer layer located between the two or more blankets, wherein the super absorbent polymer layer includes super absorbent polymer particles. two or more blankets, wherein each blanket includes a substrate and aerogel formed inside and on a surface of the substrate; and a super absorbent polymer layer located between the two or more blankets, wherein the super absorbent polymer layer includes super absorbent polymer particles.
Hydraulic device comprising a first member movable relative to a second member , said first member having a pressure chamber opening in a face of said first member which face is in contact with a contact face of said second member , said second member having a low pressure area , wherein a throttling flow path is provided in a groove connecting said pressure chamber and said low pressure area when said pressure chamber is approaching said low pressure area , characterized in that a total throttling resistance of the flow path increases during the duration of the throttling, wherein a differential throttling resistance per unit of length of said groove increases in a direction of the flow through said groove from the high pressure area within the pressure chamber towards the low pressure area .
Method for producing a food material essentially consisting of isomalt for its use as a container for food material, characterised in that it includes the steps of: - melting in an extruder of the material by heating the temperature from 80°C to 160°C, preferably from 150°C to 160°C, - tempering so as to obtain the material in the stable crystalline form thereof and to eliminate bubbles in the material, and - pouring or injecting into moulds, wherein the tempering step is realized at a temperature higher than the melting temperature of the isomalt, but enabling to remain the product in malleable and ductile form, said tempering step comprising a step of heating at a temperature of 160°C for 3 minutes, followed by a cooling step at a temperature of 120°C to 130°C. - melting in an extruder of the material by heating the temperature from 80°C to 160°C, preferably from 150°C to 160°C, - tempering so as to obtain the material in the stable crystalline form thereof and to eliminate bubbles in the material, and - pouring or injecting into moulds, wherein the tempering step is realized at a temperature higher than the melting temperature of the isomalt, but enabling to remain the product in malleable and ductile form, said tempering step comprising a step of heating at a temperature of 160°C for 3 minutes, followed by a cooling step at a temperature of 120°C to 130°C.
A device for adjusting or correcting the curvature of a vertebral column, the device comprising at least one spring and at least three fixation members for attaching the spring or springs to the vertebral column in at least three different attachment locations , characterised in that at least one of the fixation members comprises a tape, band or string for attaching the spring to the vertebral column at one of the locations.
A system comprising: one or more processors configured to: receive data gathered during an inhalation performed using an inhaler by a user, wherein the data are suitable for determining a measure of the user's lung function and/or lung health; receive further data gathered during a further inhalation performed using the inhaler by the user, the further inhalation being subsequent to said inhalation, wherein the further data are suitable for determining a further measure of the user's lung function and/or lung health, wherein the measure and the further measure of the user's lung function and/or lung health are determined from the respective data by determining peak inspiratory flow and/or total inhaled volume from the data, and wherein the one or more processors are further configured to: provide an indication of the progression of a condition over time based on a comparison of the data with the further data; and and predict future changes to the user's lung function and/or lung health based on the comparison of the data with the further data. one or more processors configured to: receive data gathered during an inhalation performed using an inhaler by a user, wherein the data are suitable for determining a measure of the user's lung function and/or lung health; receive further data gathered during a further inhalation performed using the inhaler by the user, the further inhalation being subsequent to said inhalation, wherein the further data are suitable for determining a further measure of the user's lung function and/or lung health, receive data gathered during an inhalation performed using an inhaler by a user, wherein the data are suitable for determining a measure of the user's lung function and/or lung health; receive further data gathered during a further inhalation performed using the inhaler by the user, the further inhalation being subsequent to said inhalation, wherein the further data are suitable for determining a further measure of the user's lung function and/or lung health, wherein the measure and the further measure of the user's lung function and/or lung health are determined from the respective data by determining peak inspiratory flow and/or total inhaled volume from the data, and wherein the one or more processors are further configured to: provide an indication of the progression of a condition over time based on a comparison of the data with the further data; and and predict future changes to the user's lung function and/or lung health based on the comparison of the data with the further data. provide an indication of the progression of a condition over time based on a comparison of the data with the further data; and and predict future changes to the user's lung function and/or lung health based on the comparison of the data with the further data.
Additive manufacturing device for manufacturing a three dimensional object, comprising a foil substrate and a resin depositor for depositing a layer of curable resin on a first side of the foil substrate , the foil substrate being supported by a support plate ; a radiation source for radiation curing the resin layer on the first side of the foil substrate , wherein a cured resin layer represents a cross sectional slice of a three dimensional object ; a stage configured to hold a stacked arrangement of one or more cured resin layers representing at least in part the three dimensional object ; a positioning system for relative positioning the foil substrate and the stage ; the resin depositor comprising an input side resin storage unit ; the additive manufacturing device further comprising a resin collection unit arranged to collect unused curable resin from the substrate , characterized in that the additive manufacturing device further comprises a resin conditioning unit upstream from the input side resin storage unit , wherein the resin conditioning unit is in communication with the resin collection unit and the input side resin storage unit , and the resin collection unit comprises a scraper and a suction aperture , the scraper has a curvature, and the suction aperture is located centrally with respect to the curvature of the scraper . a foil substrate and a resin depositor for depositing a layer of curable resin on a first side of the foil substrate , the foil substrate being supported by a support plate ; a radiation source for radiation curing the resin layer on the first side of the foil substrate , wherein a cured resin layer represents a cross sectional slice of a three dimensional object ; a stage configured to hold a stacked arrangement of one or more cured resin layers representing at least in part the three dimensional object ; a positioning system for relative positioning the foil substrate and the stage ; the resin depositor comprising an input side resin storage unit ; the additive manufacturing device further comprising a resin collection unit arranged to collect unused curable resin from the substrate , characterized in that the additive manufacturing device further comprises a resin conditioning unit upstream from the input side resin storage unit , wherein the resin conditioning unit is in communication with the resin collection unit and the input side resin storage unit , and the resin collection unit comprises a scraper and a suction aperture , the scraper has a curvature, and the suction aperture is located centrally with respect to the curvature of the scraper .
A peptide of between 8 and 20 amino acids comprising at least 8 consecutive amino acids residues with a sequence present in SEQ ID NO 46, wherein at least one of the 8 consecutive amino acids residues selected from the sequence present in SEQ ID NO 46 is citrulline.
A method for fermentative production of n-butylacrylate (n-BA) comprising the steps of i) providing a recombinant microorganism comprising a butanol producing pathway, an acryloyl-CoA producing pathway and expressing an alcohol acyl transferase (AAT) gene encoding an AAT enzyme having an n-BA forming activity and ii) culturing said microorganism under conditions that allow for the production of n-BA and iii) recovering n-BA from the fermentation broth. i) providing a recombinant microorganism comprising a butanol producing pathway, an acryloyl-CoA producing pathway and expressing an alcohol acyl transferase (AAT) gene encoding an AAT enzyme having an n-BA forming activity and ii) culturing said microorganism under conditions that allow for the production of n-BA and iii) recovering n-BA from the fermentation broth.
A gas turbine engine component comprising: a ring comprising a single-piece component having an outer peripheral surface and an inner peripheral surface that surrounds an engine center axis (A); a plurality of outer diameter pedestals formed in the outer peripheral surface and circumferentially spaced apart from each other; a plurality of inner diameter pedestals formed in the inner peripheral surface and circumferentially spaced apart from each other; and a plurality of recesses formed in the outer peripheral surface and circumferentially spaced apart from each other, characterized in that : the ring has an axial width (W) that extends from an upstream end to a downstream end ; a first groove is formed in the outer peripheral surface at the upstream end and a second groove is formed in the outer peripheral surface at the downstream end ; and in that the component further comprises a first seal or piston ring in the first groove and a second seal or piston ring in the second groove . a ring comprising a single-piece component having an outer peripheral surface and an inner peripheral surface that surrounds an engine center axis (A); a plurality of outer diameter pedestals formed in the outer peripheral surface and circumferentially spaced apart from each other; a plurality of inner diameter pedestals formed in the inner peripheral surface and circumferentially spaced apart from each other; and a plurality of recesses formed in the outer peripheral surface and circumferentially spaced apart from each other, the ring has an axial width (W) that extends from an upstream end to a downstream end ; a first groove is formed in the outer peripheral surface at the upstream end and a second groove is formed in the outer peripheral surface at the downstream end ; and in that the component further comprises a first seal or piston ring in the first groove and a second seal or piston ring in the second groove .
Sensor probe for measuring a food preparation parameter, comprising an elongate handle portion for manipulating the sensor probe; an elongate sensor portion ; and a stepped connecting portion connecting the handle portion and the sensor portion such that the longitudinal axis of the handle portion extends substantially parallel to the longitudinal axis of the sensor portion but offset with respect to the longitudinal axis of the sensor portion, so that the sensor probe can be set with the stepped connecting portion onto a rim of a cooking utensil such as a pot or a pan; wherein the stepped connecting portion extends at an angle (α) of between 55° and 85° to the longitudinal axes of the handle portion and the sensor portion.
A method for exhaust gas aftertreatment of an internal combustion engine , wherein the internal combustion engine is supplied with fresh air by means of a compressor and has an adjustable valve control device for the intake valves and/or the exhaust valves , and wherein the internal combustion engine is connected to an exhaust gas duct , and in the exhaust gas duct a first three-way catalytic converter is arranged and upstream of the first three-way catalytic converter a second three-way catalytic converter is provided, wherein in the flow direction of an exhaust gas downstream of an outlet of the internal combustion engine and downstream of the second three-way catalytic converter and upstream of the first three-way catalytic converter an injection valve for introducing fuel into the exhaust gas duct is arranged, comprising the following steps: - operating the internal combustion engine in scavenging mode; - introducing a lean-burn exhaust gas into the exhaust gas duct ; - metering fuel into the exhaust gas duct downstream of the second three-way catalytic converter and upstream of the first three-way catalytic converter , so that a stoichiometric exhaust gas collects at the inlet port of the first three-way catalytic converter and - after treating the stoichiometric exhaust gas by the first three-way catalytic converter . - operating the internal combustion engine in scavenging mode; - introducing a lean-burn exhaust gas into the exhaust gas duct ; - metering fuel into the exhaust gas duct downstream of the second three-way catalytic converter and upstream of the first three-way catalytic converter , so that a stoichiometric exhaust gas collects at the inlet port of the first three-way catalytic converter and - after treating the stoichiometric exhaust gas by the first three-way catalytic converter .
A method of providing flow control information in an opposite direction to a data flow in an Integrated Access Backhaul network by an Adaptation layer, the Integrated Access Backhaul network comprising a plurality of IAB nodes, the method comprising upon polling from a second IAB node or a trigger a first IAB node of the plurality of IAB nodes transmitting hop-by-hop flow control information for an IAB bearer to the second IAB node of the plurality of IAB nodes, wherein the hop-by-hop flow control information is provided for an IAB bearer configured at the first and second IAB nodes and the flow control information indicates an available memory at the first IAB node for the corresponding bearer, wherein only in case of memory being available at the first IAB node the second IAB node is allowed to transmit data of the flow.
A nozzle for application of a setting resin onto the edge of a panel , the nozzle comprising a connector portion and an application head , wherein the connector portion is adapted to receive setting resin from a resin dispensing device and deliver the setting resin to the application head, and wherein the application head comprises: a) a supporting wall , and b) a curved finish wall joining the supporting wall along an edge at an angle of greater than 92 degrees and less than 120 degrees, wherein the connector portion is adapted to deliver the setting resin to the application head in the interior of the angle formed between the supporting wall and the curved finish wall, wherein, during application of a setting resin onto the edge of a panel, the nozzle comprises no component which makes contact with the panel other than the supporting wall and the curved finish wall, characterized in that the curved finish wall has a curve radius which is longer closer to the joining between the curved finish wall and the supporting wall and shorter farther from the joining between the curved finish wall and the supporting wall. a) a supporting wall , and b) a curved finish wall joining the supporting wall along an edge at an angle of greater than 92 degrees and less than 120 degrees,
A method in a secondary node for providing, along with a master node, dual connectivity for a wireless device such that the wireless device is configured to utilize resources provided by both the master node and the secondary node in a wireless communication network, comprising: receiving , from the master node, a release request, the release request being a request to release a wireless device context of the wireless device or to release resources for the wireless device; and sending a release reject to the master node, the release reject being an indication that the secondary node rejects the release request. receiving , from the master node, a release request, the release request being a request to release a wireless device context of the wireless device or to release resources for the wireless device; and sending a release reject to the master node, the release reject being an indication that the secondary node rejects the release request.
A fuel injection control device with which a fuel injection valve is controlled in an intermediate lift state, the fuel injection control device estimating a valve opening delay time (Ta') of the fuel injection valve on the basis of a plurality of valve closing delay times (Tb'), the plurality of valve closing delay times (Tb') being obtained when the fuel injection valve is operated with injection pulse widths (Ti) that are different injection pulse widths (Ti) from each other and with which the fuel injection valve is in the intermediate lift state, wherein the fuel injection control device estimates the valve opening delay time (Ta') from a linear relationship between each of the injection pulse widths (Ti) and a valve closing delay time (Tb') corresponding to each of the injection pulse widths (Ti), and wherein the fuel injection control device estimates an injection pulse width (Ti) of when the valve closing delay time (Tb') is 0 as the valve opening delay time, in a linear approximation equation obtained from the linear relationship between each of the injection pulse widths (Ti) and the valve closing delay time (Tb') corresponding to each of the injection pulse widths (Ti).
Hydraulic steering arrangement comprising a supply port , a return port , a working port arrangement having two working ports , a main flow path between the supply port and one of the working ports and a return flow path between the other working port and the return port , wherein the main flow path comprises a main orifice (A1), a flow meter , a first flow meter orifice (A2) upstream the flow meter , a second flow meter orifice (A3) downstream the flow meter , and a first working port orifice (A4), the return flow path comprises a second working port orifice (A5), a load sensing point is arranged between the main orifice (A1) and the first flow meter orifice (A2), a drain orifice (Ad) is arranged between the load sensing point and the return port , and a priority valve arrangement is arranged between the supply port and the main orifice (A1), wherein a load sensing port of the priority valve arrangement is connected to the load sensing point , wherein a priority outlet (CF) of the priority valve arrangement is directly connected to the main orifice (A1), the load sensing port of the priority valve arrangement is directly connected to the load sensing point , characterized in that the main flow path comprises a check valve between the load sensing point and the working port of the main flow path , the check valve opening in a direction towards the working port .
An exhaust gas purification catalyst composition comprising: a carrier A comprising a zirconium phosphate; a catalytically active component (a) supported on the carrier A; a carrier B comprising an inorganic oxide porous material; and a catalytically active component (b) supported on the carrier B, wherein the carrier B consists of one or more inorganic oxide porous materials selected from silica, ceria-zirconia, lanthana, alumina, and titania, the catalytically active component (b) supported on the carrier B is platinum (Pt), and the catalytically active component (a) comprises Rh. a carrier A comprising a zirconium phosphate; a catalytically active component (a) supported on the carrier A; a carrier B comprising an inorganic oxide porous material; and a catalytically active component (b) supported on the carrier B, wherein the carrier B consists of one or more inorganic oxide porous materials selected from silica, ceria-zirconia, lanthana, alumina, and titania, the catalytically active component (b) supported on the carrier B is platinum (Pt), and the catalytically active component (a) comprises Rh.