mhurhangee/patent-ind-claim-en huggingface dataset:
Method for detecting theft of DC/AC inverters (WR) connected to photovoltaic modules or for detecting a damaged communication and data line (KL) between the DC/AC inverters (WR) and a central communication unit (ZKE) of a photovoltaic installation, wherein the DC/AC inverters are controlled by said central communication unit (ZKE), which is connected to the Internet (IN) as communication network or another communication network, via said communication and data line (KL) that is connected to each of the DC/AC inverters (WR), on the one hand, and to the central communication unit (ZKE), on the other hand, characterized in that , in order to check the internal and external data traffic of the central communication unit (ZKE) of the photovoltaic installation, a monitoring unit (UE) is connected to said photovoltaic installation via a data line (DL); in that , when the monitoring unit is started for the first time, the operating and device data of the photovoltaic installation, such as the number and the type of connected devices, are recorded for the first time via the data line (DL) and are stored in a memory for the operating and device data (SPG) in the monitoring unit (UE), in that the number of faulty or missing DC/AC inverters (WR) is specified and this specification is stored in the memory for operating and device data (SPG) within the monitoring unit (UE), in that the data traffic of the central communication and data line (KL) between the DC/AC inverters (WR) and the central communication unit (ZKE) of the photovoltaic installation is monitored by the monitoring unit (UE) via the data line (DL) connected to the central communication unit (ZKE) during ongoing operation of the photovoltaic installation by way of queries, which are continuous or performed at adjustable time intervals, of the number of DC/AC inverters (WR) that are connected and in operation, and is compared with the data stored in the memory for the operating and device data (SPG) of the monitoring unit (UE), wherein, if deviations are determined, a corresponding item of information is transmitted via the central communication unit ZKE and the Internet IN to the central server as an email message or as an alarm, and, if a minimum number of devices are missing, a notification is transmitted to the central server by way of email and/or an alarm signal by a data processing and memory unit (DS) in the monitoring unit via the central communication unit ZKE or the internal communication unit IKE via the Internet IN or an Ethernet or RS485 bus communication.
Multipurpose mould structure for the expansion and sintering of polystyrene (eps, polystyrene), for manufacturing prefabricated panels for construction purposes , made of reinforced or non-reinforced sintered expanded polystyreneconsisting, when reinforced, of a composite complex obtained by aggregating steel to the sintered expanded polymeric mass, preferably of the high-density type, by embedding - thereinto - typically wire-like/rod-like metal elements preassembled to form a cage made of electrowelded elements, often provided with further metalware such as hinges and/or joining strips and/or the like, comprising at least one mould modular operating unit consisting of at least two half-shells said operating unit being designated to be twinned to at least an identical one to form a single mould compartment or chamber with an area at least twice as large, characterized in that the two half-shells have variable geometry and shape to modify the volume, the size and the conformation of the mould compartment or chamber , and in that the at least one modular operating unit is served by a module with mechanisms for supplying and loading the reinforcement means or elements to be embedded into the moulded sintered mass, as well as a module with mechanisms for unloading and removing the moulded panels .
Method for controlling a medical imaging system , comprising the steps: - Providing a data record (PD) for a patient (P), containing indication data (ID), - Mapping at least the indication data (ID) into an ontology (O), - Providing a control data library (SB) comprising control data records (SD) for at least one medical imaging system , - Automatically determining a control data record (SD) from the control data library (SB) as a function of the indication data (ID) mapped into the ontology (O), by means of an inference and/or numerical modelling on the basis of a preset allocation of semantic objects within the ontology, - Controlling the medical imaging system with the determined control data record (SD), - Reconstructing and/or graphically post-processing an image data record, wherein the reconstructing and/or graphical post-processing takes place automatically or semi-automatically on the basis of the determined control data record after the controlling of the selected medical imaging system and a recording of the image data record by the medical imaging system. - Providing a data record (PD) for a patient (P), containing indication data (ID), - Mapping at least the indication data (ID) into an ontology (O), - Providing a control data library (SB) comprising control data records (SD) for at least one medical imaging system , - Automatically determining a control data record (SD) from the control data library (SB) as a function of the indication data (ID) mapped into the ontology (O), by means of an inference and/or numerical modelling on the basis of a preset allocation of semantic objects within the ontology, - Controlling the medical imaging system with the determined control data record (SD), - Reconstructing and/or graphically post-processing an image data record, wherein the reconstructing and/or graphical post-processing takes place automatically or semi-automatically on the basis of the determined control data record after the controlling of the selected medical imaging system and a recording of the image data record by the medical imaging system.
A heat transfer segment for a curved heat exchanger , wherein the heat transfer segment comprises a plurality of enclosure bars that at least partially define two opposite ends of the heat transfer segment , wherein the two opposite ends define respective general planes, wherein the enclosure bars are shaped and arranged such that the general plane of one end of the heat transfer segment is not parallel with the general plane of the other end of the heat transfer segment , characterised in that at least some of the enclosure bars are shaped as a trapezoid prism, such that when said heat transfer segment is joined to an adjacent heat transfer segment in an end-to-end fashion the enclosure bars of the heat transfer segment may join to corresponding enclosure bars of the adjacent heat transfer segment thus forming an angular offset between the two adjacent heat transfer segments. wherein the enclosure bars are shaped and arranged such that the general plane of one end of the heat transfer segment is not parallel with the general plane of the other end of the heat transfer segment , characterised in that at least some of the enclosure bars are shaped as a trapezoid prism, such that when said heat transfer segment is joined to an adjacent heat transfer segment in an end-to-end fashion the enclosure bars of the heat transfer segment may join to corresponding enclosure bars of the adjacent heat transfer segment thus forming an angular offset between the two adjacent heat transfer segments.
A wellbore leakage detection tool comprising; - a longitudinal tool element with centralizers , characterized by said tool element comprising a through bore perpendicular to a longitudinal axis of said longitudinal tool element , - acoustic insulation means arranged in said through bore , - an acoustic sensor assembly , - wherein said acoustic sensor assembly comprises; an insert housing , an acoustic sensor arranged inside said housing , wherein said housing has first and second ends arranged on opposite sides of said acoustic sensor and facing laterally outwards of opposite ends of said through bore , - wherein said acoustic sensor is an ultrasonic contact transducer, - wherein said first and second ends are arranged to interface a wellbore fluid, and wherein said acoustic sensor is in direct acoustic contact with said housing , and - said sensor assembly arranged suspended in said acoustic insulation means inside said through bore , wherein said acoustic insulation means has an acoustic impedance different from an acoustic impedance of said tool element . - a longitudinal tool element with centralizers , characterized by said tool element comprising a through bore perpendicular to a longitudinal axis of said longitudinal tool element , - acoustic insulation means arranged in said through bore , - an acoustic sensor assembly , - wherein said acoustic sensor assembly comprises; an insert housing , an acoustic sensor arranged inside said housing , wherein said housing has first and second ends arranged on opposite sides of said acoustic sensor and facing laterally outwards of opposite ends of said through bore , - wherein said acoustic sensor is an ultrasonic contact transducer, - wherein said first and second ends are arranged to interface a wellbore fluid, and wherein said acoustic sensor is in direct acoustic contact with said housing , and - said sensor assembly arranged suspended in said acoustic insulation means inside said through bore , wherein said acoustic insulation means has an acoustic impedance different from an acoustic impedance of said tool element .
A method comprising: causing transmission of at least one signal to at least one wearable device , separate from an autonomous or semi-autonomous vehicle , to control feedback provided to at least one passenger of the autonomous or semi-autonomous vehicle by the at least one wearable device 1 so as to provide control information of the autonomous or semi-autonomous vehicle , wherein the feedback comprises tactile feedback.
A method of joining two aircraft components of a thermoplastic composite material by means of a rivet , the method comprising the following steps: Providing a first aircraft component made of a thermoplastic composite material and a second aircraft component made of a thermoplastic composite material, arranging the first aircraft component and the second aircraft component with respect to each other in such a way that the first aircraft component at least partially lies flat against the second aircraft component , expanding a first bore in the first aircraft component and a second bore in the second aircraft component with a mandrel element (2. 7) so that the first bore and the second bore form the continuous bore through the first and the second aircraft component for receiving the rivet after expansion, wherein the first aircraft component and the second aircraft component are locally heated during expansion so that the first aircraft component (i) is thermoplastically formed during expansion of the first bore and the second aircraft component is thermoplastically formed during expansion of the second bore , wherein the mandrel member is inserted through the first bore into the second bore , and inserting the rivet into the through bore such that the rivet extends through the first bore in the first aircraft component and the second bore in the second aircraft component . Providing a first aircraft component made of a thermoplastic composite material and a second aircraft component made of a thermoplastic composite material, arranging the first aircraft component and the second aircraft component with respect to each other in such a way that the first aircraft component at least partially lies flat against the second aircraft component , expanding a first bore in the first aircraft component and a second bore in the second aircraft component with a mandrel element (2. 7) so that the first bore and the second bore form the continuous bore through the first and the second aircraft component for receiving the rivet after expansion, wherein the first aircraft component and the second aircraft component are locally heated during expansion so that the first aircraft component (i) is thermoplastically formed during expansion of the first bore and the second aircraft component is thermoplastically formed during expansion of the second bore , wherein the mandrel member is inserted through the first bore into the second bore , and inserting the rivet into the through bore such that the rivet extends through the first bore in the first aircraft component and the second bore in the second aircraft component .
A stent comprising: a hollow wire formed into a stent pattern, wherein the hollow wire includes: an outer member including an outer surface ; a lumen defined by an inner surface of the hollow wire and extending longitudinally within the hollow wire; at least one opening disposed through the outer member to the lumen and defined by a radial surface , wherein a first diameter (D1) of the at least one opening at the outer surface of the outer member is greater than a second diameter (D2) of the lumen ; the stent being characterized in that the hollow wire comprises a surface area component disposed on at least one radial surface of the at least one opening or on the inner surface of the hollow wire defining the lumen , wherein the surface area component increases the amount of surface available for tissue in-growth within the hollow wire . an outer member including an outer surface ; a lumen defined by an inner surface of the hollow wire and extending longitudinally within the hollow wire; at least one opening disposed through the outer member to the lumen and defined by a radial surface , wherein a first diameter (D1) of the at least one opening at the outer surface of the outer member is greater than a second diameter (D2) of the lumen ; the stent being characterized in that the hollow wire comprises a surface area component disposed on at least one radial surface of the at least one opening or on the inner surface of the hollow wire defining the lumen , wherein the surface area component increases the amount of surface available for tissue in-growth within the hollow wire .
A method for transmitting an uplink signal by a User Equipment, UE, in a wireless communication system, the method comprising: receiving (S1210) downlink control information including a power boosting indicator; determining (S 1220), based on the power boosting indicator, first transmission power of a first symbol group and second transmission power of a second symbol group; wherein the first symbol group includes at least one Orthogonal Frequency Division Multiple, OFDM, symbol with Non-Orthogonal Multiple Access, NOMA, scheme, and the second symbol group includes at least one OFDM symbol with Orthogonal Multiple Access, OMA, scheme, determining whether or not the power boosting is applied based on the power boosting indicator; and transmitting (S 1230) an uplink signal based on the first transmission power and second transmission power, wherein the power boosting indicator is activated in a symbol group unit when a difference between the first transmission power and the second transmission power is equal to or greater than a predetermined power offset, and wherein the power boosting indicator indicates the power boosting only for the first symbol group. receiving (S1210) downlink control information including a power boosting indicator; determining (S 1220), based on the power boosting indicator, first transmission power of a first symbol group and second transmission power of a second symbol group; wherein the first symbol group includes at least one Orthogonal Frequency Division Multiple, OFDM, symbol with Non-Orthogonal Multiple Access, NOMA, scheme, and the second symbol group includes at least one OFDM symbol with Orthogonal Multiple Access, OMA, scheme, determining whether or not the power boosting is applied based on the power boosting indicator; and transmitting (S 1230) an uplink signal based on the first transmission power and second transmission power, wherein the power boosting indicator is activated in a symbol group unit when a difference between the first transmission power and the second transmission power is equal to or greater than a predetermined power offset, and wherein the power boosting indicator indicates the power boosting only for the first symbol group.
An organic light emitting display device comprising: a first light emitting unit between a first electrode (410P1, 410P2, 410P3) configured to be an anode and a second electrode configured to be a cathode, the first light emitting unit including a first hole transporting layer and a first light emitting layer (423P1, 423P2, 423P3); and a second light emitting unit between the first light emitting unit and the second electrode , the second light emitting unit including a second hole transporting layer and a second light emitting layer (427P1, 427P2, 427P3) configured to emit light of the same color as the first light emitting layer (423P1, 423P2, 423P3), wherein a thickness (T4) of the second hole transporting layer is greater than a thickness (T3) of the first hole transporting layer , characterized in that a thickness ratio (T3:T4) of the first hole transporting layer to the second hole transporting layer is within a range from 1:1.25 to 1:1.5. a first light emitting unit between a first electrode (410P1, 410P2, 410P3) configured to be an anode and a second electrode configured to be a cathode, the first light emitting unit including a first hole transporting layer and a first light emitting layer (423P1, 423P2, 423P3); and a second light emitting unit between the first light emitting unit and the second electrode , the second light emitting unit including a second hole transporting layer and a second light emitting layer (427P1, 427P2, 427P3) configured to emit light of the same color as the first light emitting layer (423P1, 423P2, 423P3), wherein a thickness (T4) of the second hole transporting layer is greater than a thickness (T3) of the first hole transporting layer , characterized in that a thickness ratio (T3:T4) of the first hole transporting layer to the second hole transporting layer is within a range from 1:1.25 to 1:1.5.
A method of fabricating a three dimensional, 3D, object using a plurality of substrate layers corresponding to slices of the 3D object to be fabricated, comprising: for each substrate layer, selectively depositing a liquid on the substrate layer to correspond to the slice of the 3D object to be formed by the substrate layer, applying a powder to the substrate layer so that the powder adheres to the selectively deposited liquid, and removing excess powder that is not adhering to the liquid; and aligning the substrate layers with each other and placing them on top of one another, and transforming the adhered powder so that it hardens, thereby bonding the layers of the substrate together. for each substrate layer, selectively depositing a liquid on the substrate layer to correspond to the slice of the 3D object to be formed by the substrate layer, applying a powder to the substrate layer so that the powder adheres to the selectively deposited liquid, and removing excess powder that is not adhering to the liquid; and aligning the substrate layers with each other and placing them on top of one another, and transforming the adhered powder so that it hardens, thereby bonding the layers of the substrate together.
A haulage vehicle (20-1) connected to a control server configured to implement fleet management over wireless lines and to autonomously travel while taking instructions from the control server into account, comprising: a position calculating device configured to calculate an estimated position of its own vehicle; characterized by a position range calculating unit configured to calculate a position range which is centered around the estimated position and in which the haulage vehicle (20-1) is present with a predetermined expected probability; a maximum deviation amount calculating unit configured to calculate a maximum deviation amount indicating a highest value among the amounts of deviations between a target route of the haulage vehicle and each of points included in the position range; a target vehicle-speed decision unit configured to set a target vehicle speed of the haulage vehicle (20-1) to be relatively low when the maximum deviation amount is relatively large; and a target route-tracing unit configured to perform control for the haulage vehicle (20-1) to travel along the target route in compliance with the target vehicle speed. a position calculating device configured to calculate an estimated position of its own vehicle; characterized by a position range calculating unit configured to calculate a position range which is centered around the estimated position and in which the haulage vehicle (20-1) is present with a predetermined expected probability; a maximum deviation amount calculating unit configured to calculate a maximum deviation amount indicating a highest value among the amounts of deviations between a target route of the haulage vehicle and each of points included in the position range; a target vehicle-speed decision unit configured to set a target vehicle speed of the haulage vehicle (20-1) to be relatively low when the maximum deviation amount is relatively large; and a target route-tracing unit configured to perform control for the haulage vehicle (20-1) to travel along the target route in compliance with the target vehicle speed.
A system for simultaneously preparing alcohol-free wine and high-alcohol liquor, comprising a primary membrane separation system and a secondary membrane separation system , wherein an inlet of the primary membrane separation system is connected to feeds, and a permeate side of the primary membrane separation system is connected to an inlet of the secondary membrane separation system; and both the primary membrane separation system and the secondary membrane separation system comprise an organic-permselective pervaporation membrane; characterised in that the organic-permselective pervaporation membrane consists of a basement membrane and a separation layer; the pore size of the basement membrane is 5nm-80nm; the material of the basement membrane is sulfonated poly(aryl ether ketone) selected from sulfonated polyether ketone and sulfonated polyether ketone ether ketone ketone; and the material of the separation layer comprises hydrophobic nano titanium dioxide and amino-terminated modified polydimethylsiloxane, the ammonia value of the amino-terminated polydimethylsiloxane being 0.2-0.8. both the primary membrane separation system and the secondary membrane separation system comprise an organic-permselective pervaporation membrane; characterised in that the organic-permselective pervaporation membrane consists of a basement membrane and a separation layer; the pore size of the basement membrane is 5nm-80nm; the material of the basement membrane is sulfonated poly(aryl ether ketone) selected from sulfonated polyether ketone and sulfonated polyether ketone ether ketone ketone; and the material of the separation layer comprises hydrophobic nano titanium dioxide and amino-terminated modified polydimethylsiloxane, the ammonia value of the amino-terminated polydimethylsiloxane being 0.2-0.8.
A transfer film (30; 130; 230) comprising: a carrier film ; a sacrificial template layer comprising antireflective nanostructure template features (14; 114), the sacrificial template layer being disposed on a release surface of the carrier film or on a release layer separating the carrier film from the sacrificial template layer ; a thermally stable backfill layer having a first surface conforming to the antireflective nanostructure template features (14; 114) and an opposing planar second surface . a carrier film ; a sacrificial template layer comprising antireflective nanostructure template features (14; 114), the sacrificial template layer being disposed on a release surface of the carrier film or on a release layer separating the carrier film from the sacrificial template layer ; a thermally stable backfill layer having a first surface conforming to the antireflective nanostructure template features (14; 114) and an opposing planar second surface .