mhurhangee/patent-ind-claim-en huggingface dataset:
A method for the continuous production of metal foam composite bodies as sandwich panels in a production line, with cover layers of aluminium and a metal foam body of aluminium between the cover layers , wherein prefabricated sandwich panels are continuously passed through an infrared oven , between the cover plates a plurality of aluminium foam body elements consisting of fine aluminium particles in combination with blowing agent are inserted and the sandwich plates are guided through a plurality of controllable temperature zones in the infrared oven , wherein the sandwich panels are heated up to the reaction temperature of the aluminium foam body elements with a heat input which is targeted depending on the geometry and are maintained for a predetermined period of time at a stabilisation temperature close to but below the solidus temperature of the cover layers , for homogeneous metallic connection between the cover sheets and a closed-pore aluminium foam body formed from the aluminium foam body elements between them, and wherein the sandwich panels are transferred by a handling device to a downstream in-line calibration press .
An integral filter retaining rack consisting of two side bars and two end bars to form an outer assembly frame, and one or multiple hem slot bars and one or multiple brake slot bars interlocked together to define filter compartments ; characterized in that the hem slot bar is formed from one single sheet of material consisting of a double-panel flat body with two flanges distal to a bend end of the flat body , and one or multiple slots cut through both flange(s) into the flat body ; and the brake slot bar is formed from one single sheet of material and consists of a double-panel flat body with two flanges distal to a bend end of the flat body , and one or multiple slots are cut through the bend end into the flat body , and end slot(s) cut through both ends of the flat body at the flanges , the brake slot bar further comprising two end flanges. the hem slot bar is formed from one single sheet of material consisting of a double-panel flat body with two flanges distal to a bend end of the flat body , and one or multiple slots cut through both flange(s) into the flat body ; and the brake slot bar is formed from one single sheet of material and consists of a double-panel flat body with two flanges distal to a bend end of the flat body , and one or multiple slots are cut through the bend end into the flat body , and end slot(s) cut through both ends of the flat body at the flanges , the brake slot bar further comprising two end flanges.
A method for preparing ammonia gas through a reaction between an ammonium salt and a silicate, comprising preparing ammonia gas through a reaction between an ammonium salt aqueous solution and a silicate in a reactor at a high temperature, wherein the temperature of the silicate is 80 to 600 °C, the reactor is a moving bed reactor or a fluidized bed reactor.
A separating device for separating a tubular, flat material having an actual tube width (1.1), comprising at least one longitudinal separating unit for separating or removing a first edge region and a second edge region of the flat material , characterized in that an auxiliary separating unit is provided, which can be brought from an auxiliary rest state (I) into an auxiliary separating state (II), wherein the auxiliary separating unit is deactivated in the auxiliary rest state (I) and is activated in the auxiliary separating state (II), so that in the auxiliary separating state (II) a first and/or a second auxiliary edge region can be removed from a central region of the flat material .
Device for holding and/or transporting a notebook and/or laptop, comprising a first holding device for holding the notebook and/and laptop, in particular with one or more receiving reception lock devices , a second holding device , wherein the first holding device is connected in a foldable manner to the second holding device via a folding connection , wherein the second holding device comprises three magnetic elements , wherein a first magnetic element and a second magnetic element are arranged in an upper region of the holding device and a third magnetic element are arranged substantially centrally in a lower region of the second holding device .
A substantive diamidoquat molecule of Formula I, wherein R and R 1 may or may not be same and are selected from C 6 to C 24 straight or branched alkyl chain or alkenyl residue.
An apparatus for stacking banknotes, comprising: a first weight measurement part (Sa) that measures a weight of a first banknote bundle, banknotes attached to each other along a thickness direction of the banknotes being bundled as the first banknote bundle, characterized by a second weight measurement part (Sb) that measures a weight of a second banknote bundle, a first predetermined number of first banknote bundles attached to each other being bundled as the second banknote bundle; and a controller that compares the weight measured by the first weight measurement part (Sa) with the weight measured by the second weight measurement part (Sb), and decides whether the number of first banknote bundles bundled as the second banknote bundle is smaller than the first predetermined number, based on a comparison result of the weight. a first weight measurement part (Sa) that measures a weight of a first banknote bundle, banknotes attached to each other along a thickness direction of the banknotes being bundled as the first banknote bundle, characterized by a second weight measurement part (Sb) that measures a weight of a second banknote bundle, a first predetermined number of first banknote bundles attached to each other being bundled as the second banknote bundle; and a controller that compares the weight measured by the first weight measurement part (Sa) with the weight measured by the second weight measurement part (Sb), and decides whether the number of first banknote bundles bundled as the second banknote bundle is smaller than the first predetermined number, based on a comparison result of the weight.
A method of detecting the presence and amounts of specific contaminants in at least one liquid comprising the steps of: providing a volume of liquid, conducting a method of contamination detection capable of measuring the amount of turbidity in the volume of liquid and inferring from that the amount of turbidity causing , contaminants within the liquid, selecting a correcting factor by identifying which of a series of pre-determined correction factors corresponds with the degree to which the measured amount of turbidity scatters light coming from a specific tracer and thereby alters the amount of a change in fluorescence that occurs within the specific liquid when the tracer is in the presence of an oil, introducing the specific tracer into the liquid, measuring the change in fluorescence emitted by introducing the specific tracer into the liquid, correcting the measured change in fluorescence by adjusting the measured change according to the selected correction factor, calculating the amount of oil within the liquid from the corrected measured change in fluorescence, and calculating the amount of non-oil contaminant within the liquid by subtracting the calculated amount of oil from the calculated amount of turbidity causing contaminants, wherein the tracer is polarity-sensitive and displays detectable properties when in water and in the presence of oil but not when in water absent the oil. providing a volume of liquid, conducting a method of contamination detection capable of measuring the amount of turbidity in the volume of liquid and inferring from that the amount of turbidity causing , contaminants within the liquid, selecting a correcting factor by identifying which of a series of pre-determined correction factors corresponds with the degree to which the measured amount of turbidity scatters light coming from a specific tracer and thereby alters the amount of a change in fluorescence that occurs within the specific liquid when the tracer is in the presence of an oil, introducing the specific tracer into the liquid, measuring the change in fluorescence emitted by introducing the specific tracer into the liquid, correcting the measured change in fluorescence by adjusting the measured change according to the selected correction factor, calculating the amount of oil within the liquid from the corrected measured change in fluorescence, and calculating the amount of non-oil contaminant within the liquid by subtracting the calculated amount of oil from the calculated amount of turbidity causing contaminants, wherein the tracer is polarity-sensitive and displays detectable properties when in water and in the presence of oil but not when in water absent the oil.
A heavy-duty barrier , which is movable, comprising a base part , which comprises a ballast , and a fence part attached to the base part, wherein the fence part comprises a fixed bar structure and a rigid first connection element , which is movably attached to the bar structure, wherein the first connection element comprises an attachment portion , movably attached to a bar portion of the bar structure characterized in the attachment portion encircling the circumference of the bar portion, and further characterized in that the connection element comprises a hook portion arranged to be engaged with a complementary hook portion of a rigid connection element of a neighbouring heavy-duty barrier.
An oral care implement comprising a first part comprising a carrier plate having a back side and a front side opposite the back side , and at least one cleaning element extending from the front side ; and a second part comprising a support plate and at least a portion of a neck , the support plate having a front side and a back side opposite the front side ; wherein the back side of the carrier plate is secured to the front side of the support plate by means of a plastic material molded around at least a portion of the back side of the support plate and over at least a portion of the carrier plate to provide a non-detachable connection between the first and the second part characterized in that each of the carrier plate and the support plate has a width extension and a length extension and the width extension and/or the length extension of the carrier plate exceeds the width extension and/or length extension of the support plate and the plastic material is molded over the portion of the back side of the carrier plate exceeding the extension of the support plate , and the back side of the carrier plate and/or the front side of the support plate comprises a recess forming a channel between the back side of the carrier plate and the front side of the support plate and the molded plastic material fills the channel . a first part comprising a carrier plate having a back side and a front side opposite the back side , and at least one cleaning element extending from the front side ; and a second part comprising a support plate and at least a portion of a neck , the support plate having a front side and a back side opposite the front side ; wherein the back side of the carrier plate is secured to the front side of the support plate by means of a plastic material molded around at least a portion of the back side of the support plate and over at least a portion of the carrier plate to provide a non-detachable connection between the first and the second part characterized in that each of the carrier plate and the support plate has a width extension and a length extension and the width extension and/or the length extension of the carrier plate exceeds the width extension and/or length extension of the support plate and the plastic material is molded over the portion of the back side of the carrier plate exceeding the extension of the support plate , and the back side of the carrier plate and/or the front side of the support plate comprises a recess forming a channel between the back side of the carrier plate and the front side of the support plate and the molded plastic material fills the channel .
Interoperability device for interconnecting at least one first communication network according to the 3GPP MCS standard with a second communication network according to the 3GPP MCS standard, the first communication network comprising at least one first local server defining and managing at least one first local communication group (A) comprising a first plurality of local user equipment, the second communication network comprising at least one second local server defining and managing at least one second local communication group (B) comprising a second plurality of local user equipment, the first plurality of user equipment and the second plurality of local user equipment having no local user equipment in common, said interoperability device comprising: - At least one multimedia group management module , configured to: o Define at least one global communication group (GAB), said global communication group (GAB) comprising at least the first local communication group (A) of the first communication network and at least the second local communication group (B) of the second communication network , o Generate and distribute at least one encryption key (K) of the global communication group (GAB) to the first local server and to the second local server , - At least one communication services management module according to the 3GPP MCS standard, configured to: o manage the floor control seizure during each group communication within the at least one global communication group (GAB) and o apply a network policy comprising communication rules, the network policy being defined by configuration. - At least one multimedia group management module , configured to: o Define at least one global communication group (GAB), said global communication group (GAB) comprising at least the first local communication group (A) of the first communication network and at least the second local communication group (B) of the second communication network , o Generate and distribute at least one encryption key (K) of the global communication group (GAB) to the first local server and to the second local server , o Define at least one global communication group (GAB), said global communication group (GAB) comprising at least the first local communication group (A) of the first communication network and at least the second local communication group (B) of the second communication network , o Generate and distribute at least one encryption key (K) of the global communication group (GAB) to the first local server and to the second local server , - At least one communication services management module according to the 3GPP MCS standard, configured to: o manage the floor control seizure during each group communication within the at least one global communication group (GAB) and o apply a network policy comprising communication rules, the network policy being defined by configuration. o manage the floor control seizure during each group communication within the at least one global communication group (GAB) and o apply a network policy comprising communication rules, the network policy being defined by configuration.
An apparatus comprising: a control valve for an excavator and an excavator, the excavator including a lower travelling body , an upper turning body mounted on the lower travelling body , an engine installed in the upper turning body , a hydraulic pump connected to the engine , and a hydraulic actuator driven by hydraulic oil discharged by the hydraulic pump to move a work element, the control valve for the excavator comprising: a valve block ; a first spool valve configured to control a flow rate of the hydraulic oil flowing from the hydraulic pump via a bridge pipeline to the hydraulic actuator and a flow rate of the hydraulic oil flowing from the hydraulic actuator to a hydraulic oil tank, the first spool valve being disposed in a center bypass pipeline ; and a second spool valve configured to control a flow rate of the hydraulic oil flowing from the hydraulic pump to the hydraulic actuator , the second spool valve being disposed in a parallel pipeline that is parallel to the center bypass pipeline, wherein the first spool valve and the second spool valve are formed in the valve block of the control valve for the excavator, and the second spool valve is disposed upstream of the first spool valve , and the hydraulic oil from the second spool valve is supplied to the bridge pipeline of the first spool valve . a valve block ; a first spool valve configured to control a flow rate of the hydraulic oil flowing from the hydraulic pump via a bridge pipeline to the hydraulic actuator and a flow rate of the hydraulic oil flowing from the hydraulic actuator to a hydraulic oil tank, the first spool valve being disposed in a center bypass pipeline ; and a second spool valve configured to control a flow rate of the hydraulic oil flowing from the hydraulic pump to the hydraulic actuator , the second spool valve being disposed in a parallel pipeline that is parallel to the center bypass pipeline, wherein the first spool valve and the second spool valve are formed in the valve block of the control valve for the excavator, and the second spool valve is disposed upstream of the first spool valve , and the hydraulic oil from the second spool valve is supplied to the bridge pipeline of the first spool valve .
A cartilage repair implant for repair and regeneration of a cartilage lesion, the implant comprising: a three-dimensional scaffold comprising at least three layers of woven fibers , characterized in that : said at least three layers of woven fibers are in a form of three-dimensional warp interlock fabric; and a three-dimensional porous substrate fixedly bonded directly to the scaffold and configured to press fit and integrate into bone. said at least three layers of woven fibers are in a form of three-dimensional warp interlock fabric; and a three-dimensional porous substrate fixedly bonded directly to the scaffold and configured to press fit and integrate into bone.
A method of generating a dynamically verifiable application executable having a plurality of functions, comprising: at build time: prepending a random prefix to at least a subset of the plurality of functions, f , of a binary of the application; generating a check function for each function of the at least a subset of the plurality of functions; injecting each of the generated check functions into random locations in the binary of the application; generating a jump table, J , the jump table, J , having, for each function in the subset of the plurality of functions: a mapping between the respective function and the generated check function; wherein the mapping between the respective function and generated check function is associated with a randomly generated identifier, o , and is randomly injected into the jump table, J ; and a call to the jump table having the identifier into a bootstrap of the binary of the application to generate a protected binary of the application. prepending a random prefix to at least a subset of the plurality of functions, f , of a binary of the application; generating a check function for each function of the at least a subset of the plurality of functions; injecting each of the generated check functions into random locations in the binary of the application; generating a jump table, J , the jump table, J , having, for each function in the subset of the plurality of functions: a mapping between the respective function and the generated check function; wherein the mapping between the respective function and generated check function is associated with a randomly generated identifier, o , and is randomly injected into the jump table, J ; and a call to the jump table having the identifier into a bootstrap of the binary of the application to generate a protected binary of the application. a mapping between the respective function and the generated check function; wherein the mapping between the respective function and generated check function is associated with a randomly generated identifier, o , and is randomly injected into the jump table, J ; and a call to the jump table having the identifier into a bootstrap of the binary of the application to generate a protected binary of the application.
Assembly for turbomachine comprising: a fire extinguishing system configured to release an extinguishing agent into the turbomachine , and a combustible fluid supply system for a turbomachine comprising: a fluid tank , a downstream part located downstream from the tank , and a cutoff valve located between the tank and the downstream part , the cutoff valve being configured to limit/prevent a fluid flow towards the downstream part , characterised in that the assembly comprises fluid communication means forming a fluid connection between the fire extinguishing system and the cutoff valve , the cutoff valve being configured to close in response to an increase in the pressure of an extinguishing agent in the fluid communication means . a fire extinguishing system configured to release an extinguishing agent into the turbomachine , and a combustible fluid supply system for a turbomachine comprising: a fluid tank , a downstream part located downstream from the tank , and a cutoff valve located between the tank and the downstream part , the cutoff valve being configured to limit/prevent a fluid flow towards the downstream part , a fluid tank , a downstream part located downstream from the tank , and a cutoff valve located between the tank and the downstream part , the cutoff valve being configured to limit/prevent a fluid flow towards the downstream part , characterised in that the assembly comprises fluid communication means forming a fluid connection between the fire extinguishing system and the cutoff valve , the cutoff valve being configured to close in response to an increase in the pressure of an extinguishing agent in the fluid communication means .
A method of detecting a target nucleic acid molecule, the method comprising: providing a plurality of droplets, wherein one or more droplets comprise a target nucleic acid molecule and one or more droplets are empty; flowing the plurality of droplets through a microfluidic channel, wherein the plurality of droplets are not single-file within a portion of the channel; and flowing the plurality of droplets that are not single-file in the microfluidic channel past a detector, thereby detecting the target nucleic acid molecule in one or more of the droplets. providing a plurality of droplets, wherein one or more droplets comprise a target nucleic acid molecule and one or more droplets are empty; flowing the plurality of droplets through a microfluidic channel, wherein the plurality of droplets are not single-file within a portion of the channel; and flowing the plurality of droplets that are not single-file in the microfluidic channel past a detector, thereby detecting the target nucleic acid molecule in one or more of the droplets.
A brake control system, characterised by comprising: an inertial sensor coupled to an axle and configured to measure a linear vertical acceleration of the axle in a vertical direction; and load balance control (LBK) in electronic communication with the inertial sensor , wherein the LBK calculates a load balance deceleration command using the linear vertical acceleration. an inertial sensor coupled to an axle and configured to measure a linear vertical acceleration of the axle in a vertical direction; and load balance control (LBK) in electronic communication with the inertial sensor , wherein the LBK calculates a load balance deceleration command using the linear vertical acceleration.