mhurhangee/ep-ind-claims huggingface dataset:
A method for use in additive manufacturing of a three-dimensional workpiece, comprising: depositing material onto a substrate to form a shape of the workpiece in accordance with an additive manufacturing process; determining a thermal characteristic of at least a portion of the workpiece during the additive manufacturing process; determining that the thermal characteristic of at least the portion exceeds a threshold associated with the portion; adjusting a cooling parameter of a cooling flow to be applied to the workpiece responsive to determining that the thermal characteristic of at least the portion exceeds the threshold associated with the portion; and applying the cooling flow with the adjusted cooling parameter to at least the portion of the workpiece; characterised in that the thermal characteristic is time at temperature, said time at temperature being a cumulative time period that a portion of the workpiece has spent at a threshold temperature, and that J the threshold includes a threshold period of time at which a threshold temperature is exceeded. depositing material onto a substrate to form a shape of the workpiece in accordance with an additive manufacturing process; determining a thermal characteristic of at least a portion of the workpiece during the additive manufacturing process; determining that the thermal characteristic of at least the portion exceeds a threshold associated with the portion; adjusting a cooling parameter of a cooling flow to be applied to the workpiece responsive to determining that the thermal characteristic of at least the portion exceeds the threshold associated with the portion; and applying the cooling flow with the adjusted cooling parameter to at least the portion of the workpiece; characterised in that the thermal characteristic is time at temperature, said time at temperature being a cumulative time period that a portion of the workpiece has spent at a threshold temperature, and that J the threshold includes a threshold period of time at which a threshold temperature is exceeded.
A method for detecting the presence of an analyte in a sample, comprising: adding a plurality of microparticles of a first-type to the sample, wherein each microparticle of the first-type includes a first binding partner configured to interact with at least a first portion of the analyte; adding a plurality of microparticles of a second-type to the sample, wherein each microparticle of the second-type includes a second binding partner configured to interact with at least a second portion of the analyte, the first portion of the analyte being different from the second portion of the analyte; and identifying an aggregate including at least one microparticle of the first-type, at least one microparticle of the second-type and the analyte, wherein identifying an aggregate includes quantifying the degree of aggregation, and wherein the aggregate indicates the presence of the analyte. adding a plurality of microparticles of a first-type to the sample, wherein each microparticle of the first-type includes a first binding partner configured to interact with at least a first portion of the analyte; adding a plurality of microparticles of a second-type to the sample, wherein each microparticle of the second-type includes a second binding partner configured to interact with at least a second portion of the analyte, the first portion of the analyte being different from the second portion of the analyte; and identifying an aggregate including at least one microparticle of the first-type, at least one microparticle of the second-type and the analyte, wherein identifying an aggregate includes quantifying the degree of aggregation, and wherein the aggregate indicates the presence of the analyte.
Heating device for heating fluids, characterized by: - a flat support with a surface, - heating elements which are arranged distributed over the surface of the support, - the heating elements are divided into one or more heating circuits which can be operated separately from one another, - a temperature sensor device with a sensor layer which covers at least the surface area of the heating elements, - at least two sensor electrodes in an electrode layer are applied onto the sensor layer, - the two sensor electrodes are electrically disconnected from one another and have finger-like or turn-like sensor electrode sections which run at a distance of less than 2 cm in relation to one another, - the width of in each case two sensor electrode sections which are arranged next to one another is less than 2 cm in each case, - a control apparatus for evaluating the temperature sensor device. - a flat support with a surface, - heating elements which are arranged distributed over the surface of the support, - the heating elements are divided into one or more heating circuits which can be operated separately from one another, - a temperature sensor device with a sensor layer which covers at least the surface area of the heating elements, - at least two sensor electrodes in an electrode layer are applied onto the sensor layer, - the two sensor electrodes are electrically disconnected from one another and have finger-like or turn-like sensor electrode sections which run at a distance of less than 2 cm in relation to one another, - the width of in each case two sensor electrode sections which are arranged next to one another is less than 2 cm in each case, - a control apparatus for evaluating the temperature sensor device.
A pharmaceutical composition for reducing scar formation, comprising: an effective amount of a first nucleic acid; an effective amount of a second nucleic acid; an effective amount of a third nucleic acid; and a pharmaceutically acceptable carrier; wherein the first nucleic acid, the second nucleic acid, and the third nucleic acid are small interference ribonucleic acids (siRNAs) or small hairpin ribonucleic acids (shRNAs), wherein the sequence of the sense strand of the first nucleic acid comprises the sequence of SEQ ID No: 1, the sequence of the sense strand of the second nucleic acid comprises the sequence of SEQ ID No: 2 and the sequence of the sense strand of the third nucleic acid comprises the sequence of SEQ ID No: 3. an effective amount of a first nucleic acid; an effective amount of a second nucleic acid; an effective amount of a third nucleic acid; and a pharmaceutically acceptable carrier; wherein the first nucleic acid, the second nucleic acid, and the third nucleic acid are small interference ribonucleic acids (siRNAs) or small hairpin ribonucleic acids (shRNAs), wherein the sequence of the sense strand of the first nucleic acid comprises the sequence of SEQ ID No: 1, the sequence of the sense strand of the second nucleic acid comprises the sequence of SEQ ID No: 2 and the sequence of the sense strand of the third nucleic acid comprises the sequence of SEQ ID No: 3.
A method, by a system comprising a computing device and an autoscale machine learning, ML, system associated with a virtual network function, vNF, to optimize resource usage of service function chains, SFCs, in a network using machine learning, the computing device coupled to a resource monitoring and management system, the method comprising: obtaining by the computing device from the autoscale machine learning system associated with the virtual network function (vNF), a suggested adjustment to an amount of resources provisioned for the vNF, wherein the autoscale ML system is trained online using machine learning to predict an amount of resources to be utilized by the vNF, and wherein the autoscale ML system 2. receives as input: an amount of resources currently utilized by the vNF, an amount of resources currently available to the vNF, and information regarding SFCs that are currently utilizing the vNF, wherein the information regarding SFCs indicates end points of each SFC and a resource demand of each SFC, determines using machine learning: the suggested adjustment to the amount of resources provisioned for the vNF based on the amount of resources currently utilized by the vNF, the amount of resources currently available to the vNF, and the information regarding SFCs that are currently utilizing the vNF, and outputs the suggested adjustment to the amount of resources provisioned for the vNF; and providing by the computing device the suggested adjustment to the amount of resources provisioned for the vNF to a resource re-allocator component. obtaining by the computing device from the autoscale machine learning system associated with the virtual network function (vNF), a suggested adjustment to an amount of resources provisioned for the vNF, wherein the autoscale ML system is trained online using machine learning to predict an amount of resources to be utilized by the vNF, and wherein the autoscale ML system 2. receives as input: an amount of resources currently utilized by the vNF, an amount of resources currently available to the vNF, and information regarding SFCs that are currently utilizing the vNF, wherein the information regarding SFCs indicates end points of each SFC and a resource demand of each SFC, determines using machine learning: the suggested adjustment to the amount of resources provisioned for the vNF based on the amount of resources currently utilized by the vNF, the amount of resources currently available to the vNF, and the information regarding SFCs that are currently utilizing the vNF, and outputs the suggested adjustment to the amount of resources provisioned for the vNF; and providing by the computing device the suggested adjustment to the amount of resources provisioned for the vNF to a resource re-allocator component.
A method for producing a tubular semi-finished product for a scaffold of an implant, wherein the semi-finished product consists of a magnesium alloy, said method having the following steps: a) extruding the tubular semi-finished product by means of a heated die, b) introducing into the material of the semi-finished product exiting from the die a tensile stress by means of a tube drawing device, which has a clamping device, wherein the clamping device is fixed on a predefined portion of the tubular semi-finished product and the tensile force generated by the tube drawing device transfers to the semi-finished product, characterised in that the temperature applied to the material of the semi-finished product heated in the die is between 240 °C and 290 °C. a) extruding the tubular semi-finished product by means of a heated die, b) introducing into the material of the semi-finished product exiting from the die a tensile stress by means of a tube drawing device, which has a clamping device, wherein the clamping device is fixed on a predefined portion of the tubular semi-finished product and the tensile force generated by the tube drawing device transfers to the semi-finished product, characterised in that the temperature applied to the material of the semi-finished product heated in the die is between 240 °C and 290 °C.
A vapour retarder with a humidity adaptive characteristic with at least one humidity adaptive layer, for the use as a foil-like membrane with a flat roof out of a wood structure on a suspended covering, characterized in that the decrease of the humidity adaptive layer of the foil-like membrane takes place in form of an S-shaped curve with a turning point in the range from a middle humidity between 40 and 55 %, with the s d value lying in this middle range between 15 m and 10 m.
An injection-molding apparatus (100, 300, 520, 624), comprising: a unitary monolithic body manufactured using a freeform fabrication process, said monolithic body including: a manifold containment structure (104, 308, 604, 658); a manifold portion (200, 316, 408, 504, 616, 654) within said manifold containment structure (104, 308, 604, 658), the manifold portion (200, 316, 408, 504, 616, 654) having at least one melt channel; an insulation cavity (212, 324) formed between an inner portion of said manifold containment structure (104, 308, 604, 658) and an outer portion of said manifold portion (200, 316, 408, 504, 616, 654); and at least one spacer (204, 650) extending between, and monolithically continuous with each of, the manifold containment structure (104, 308, 604, 658) and the manifold portion (200, 316, 408, 504, 616, 654). a manifold containment structure (104, 308, 604, 658); a manifold portion (200, 316, 408, 504, 616, 654) within said manifold containment structure (104, 308, 604, 658), the manifold portion (200, 316, 408, 504, 616, 654) having at least one melt channel; an insulation cavity (212, 324) formed between an inner portion of said manifold containment structure (104, 308, 604, 658) and an outer portion of said manifold portion (200, 316, 408, 504, 616, 654); and at least one spacer (204, 650) extending between, and monolithically continuous with each of, the manifold containment structure (104, 308, 604, 658) and the manifold portion (200, 316, 408, 504, 616, 654).
A heat pump system comprising a magnetic levitation centrifugal compressor, further comprising a switching communication device and a first electric valve; wherein an exhaust pipe of the magnetic levitation centrifugal compressor is connected to a first interface of the switching communication device through a first check valve, and a suction pipe of the magnetic levitation centrifugal compressor is connected to a third interface of the switching communication device; and the first electric valve is arranged in parallel with the magnetic levitation centrifugal compressor, wherein the heat pump system further comprises a control device, comprising: a first unit for controlling turn-on and turn-off of the first electric valve; and a second unit for controlling the switching communication device to be turned on according to a running instruction. wherein the first unit of the control device is configured such that the first electric valve is turned on before the magnetic levitation centrifugal compressor is on to adjust a differential pressure between a high-pressure side and a low-pressure side of the compressor and is turned on before the compressor is off to reduce the shutdown pressure ratio. an exhaust pipe of the magnetic levitation centrifugal compressor is connected to a first interface of the switching communication device through a first check valve, and a suction pipe of the magnetic levitation centrifugal compressor is connected to a third interface of the switching communication device; and the first electric valve is arranged in parallel with the magnetic levitation centrifugal compressor, wherein the heat pump system further comprises a control device, comprising: a first unit for controlling turn-on and turn-off of the first electric valve; and a second unit for controlling the switching communication device to be turned on according to a running instruction. wherein the first unit of the control device is configured such that a first unit for controlling turn-on and turn-off of the first electric valve; and a second unit for controlling the switching communication device to be turned on according to a running instruction. wherein the first unit of the control device is configured such that the first electric valve is turned on before the magnetic levitation centrifugal compressor is on to adjust a differential pressure between a high-pressure side and a low-pressure side of the compressor and is turned on before the compressor is off to reduce the shutdown pressure ratio.
Hinge (1, 24) for a movable furniture part, in particular a door or flap, that is fastened to a body of an item of furniture, wherein the hinge (1, 24) has a first attachment element, which is connected pivotably to a second attachment element via a joint mechanism, wherein the joint mechanism comprises at least one articulated lever (6, 7), which is mounted pivotably on the first attachment element via a first bearing element, wherein the articulated lever (6, 7) is arranged in a rotationally fixed manner on the first bearing element, and wherein the first bearing element has an eccentric member (13, 25), which acts on a damping element (14, 28), characterized in that the damping element has a linear damping movement.
Arrangement with an actuator, at least one transmit device for transmitting control telegrams (T, T) which each contain a predefined control command for the actuator or as such themselves form the predefined control command, at least two receive devices (200, 300) for receiving the control telegrams (T, T) and generating a control signal (ST1, ST2) for the actuator, and a decider device connecting the receive devices (200, 300) to the actuator which allows a conversion of the control signals (ST1, ST2) of the receive devices (200, 300) by the actuator by means of a release signal only if the control signal (ST1, ST2) is present from all receive devices (200, 300) or at least a predefined minimum number of receive devices (200, 300), - wherein the transmit device is designed in such a way that it transmits the predefined control command in each case to each receive device (200, 300) with a receiver-specific control telegram (T, T), wherein each receiver-specific control telegram (T, T) is provided in each case with a check datum indicating the consecutive number of the respectively transmitted control telegram (T, T) in encrypted or unencrypted form, and - wherein each of the at least two receive devices (200, 300) is designed in such a way that it accepts a received control telegram (T, T) as valid for it on the basis of the check datum if the check datum indicates a telegram number which matches the consecutive telegram number expected at the receiving end and, if a valid control telegram (T, T) is received, generates the control signal (ST1, ST2) for the actuator in each case for a predefined time duration. - wherein the transmit device is designed in such a way that it transmits the predefined control command in each case to each receive device (200, 300) with a receiver-specific control telegram (T, T), wherein each receiver-specific control telegram (T, T) is provided in each case with a check datum indicating the consecutive number of the respectively transmitted control telegram (T, T) in encrypted or unencrypted form, and - wherein each of the at least two receive devices (200, 300) is designed in such a way that it accepts a received control telegram (T, T) as valid for it on the basis of the check datum if the check datum indicates a telegram number which matches the consecutive telegram number expected at the receiving end and, if a valid control telegram (T, T) is received, generates the control signal (ST1, ST2) for the actuator in each case for a predefined time duration.
A method for controlling power drawn by a measurement device, the method comprising the step of measuring a first voltage across the measurement device and the method characterized by the steps of: determining an operating current based on the first voltage wherein the operating current is a maximum current that the measurement device draws without dropping a measurement device voltage below a threshold voltage to prevent resetting of the measurement device; and generating a signal to control the power so that the operating current is provided to the measurement device. determining an operating current based on the first voltage wherein the operating current is a maximum current that the measurement device draws without dropping a measurement device voltage below a threshold voltage to prevent resetting of the measurement device; and generating a signal to control the power so that the operating current is provided to the measurement device.
A method, comprising: storing, by a wireless communication device, random access, RA, information of multiple sets of RA resources of a completed RA procedure; receiving, by the wireless communication device from a wireless communication node, an indicator via a radio resource control, RRC, message; and transmitting, by the wireless communication device to the wireless communication node, responsive to the indicator, the RA information of the multiple sets of RA resources of the completed RA procedure. storing, by a wireless communication device, random access, RA, information of multiple sets of RA resources of a completed RA procedure; receiving, by the wireless communication device from a wireless communication node, an indicator via a radio resource control, RRC, message; and transmitting, by the wireless communication device to the wireless communication node, responsive to the indicator, the RA information of the multiple sets of RA resources of the completed RA procedure.
A vehicle, comprising: - a cabin defined by a front, a back, a roof, a floor, a first side that connects the front, the back, the roof, and the floor, and a second side opposite the first side that connects the front, the back, the roof, and the floor, the front being forward of the back relative to a direction of movement when the vehicle moves in a forward direction; - a window; - a plurality of seats (310; 320; 330) in the cabin which are arranged in at least two rows, a first row of seats having a first elevation relative to the floor, and a second row of seats having a second elevation relative to the floor, the second elevation being greater than the first elevation; - a video system comprising a plurality of video monitors; characterized by - said window having a surface area that covers at least 50% of the first side; - said plurality of seats (310; 320; 330) in the cabin being arranged to face the first side; and - said video system being at the first side. - a cabin defined by a front, a back, a roof, a floor, a first side that connects the front, the back, the roof, and the floor, and a second side opposite the first side that connects the front, the back, the roof, and the floor, the front being forward of the back relative to a direction of movement when the vehicle moves in a forward direction; - a window; - a plurality of seats (310; 320; 330) in the cabin which are arranged in at least two rows, a first row of seats having a first elevation relative to the floor, and a second row of seats having a second elevation relative to the floor, the second elevation being greater than the first elevation; - a video system comprising a plurality of video monitors; characterized by - said window having a surface area that covers at least 50% of the first side; - said plurality of seats (310; 320; 330) in the cabin being arranged to face the first side; and - said video system being at the first side.
A composition, the composition comprises: (i) allantoin; (ii) selenium (Se), zinc (Zn), potassium, calcium (Ca), magnesium (Mg), sulfate, bromide (Br), manganese (Mn), copper (Cu), sulfur, tellurium (Te), iron (Fe), sodium (Na) of less than 1000 mg/l and chloride of less than 500 mg/l, silica and bicarbonate; (iii) vitamin E, vitamin A and aloe-vera leaf; and (iv) a carrier, wherein the composition has a pH in the range of 5-7. (i) allantoin; (ii) selenium (Se), zinc (Zn), potassium, calcium (Ca), magnesium (Mg), sulfate, bromide (Br), manganese (Mn), copper (Cu), sulfur, tellurium (Te), iron (Fe), sodium (Na) of less than 1000 mg/l and chloride of less than 500 mg/l, silica and bicarbonate; (iii) vitamin E, vitamin A and aloe-vera leaf; and (iv) a carrier, wherein the composition has a pH in the range of 5-7.
A compound of formula which is 7-methyl-2-[4-methyl-6-[4-(trifluoromethyl)-phenyl]pyrimidin-2-yl]-1,7-diazaspiro[4.4]nonan-6-one: or a pharmaceutically acceptable salt thereof.