mhurhangee/ep-ind-claims huggingface dataset:
A method in a first unmanned aerial vehicle application server, UAV-AS, for determining a flight policy to be applied to an unmanned aerial vehicle, UAV, wherein the UAV is associated with the first UAV-AS and the first UAV-AS is maintaining a flight policy applicable for the geographical service area where the UAV is located, wherein the UAV is residing in a cellular network comprising a plurality of radio coverage areas and the geographical service area is composed of one or more radio coverage areas used in the cellular network, the method comprising: • determining, by the first UAV-AS, whether the UAV is going to leave the geographical service area towards a second geographical service area, wherein the second geographical service area is associated with a second UAV-AS; • querying, by the first UAV-AS, a flight policy applicable for the second geographical service area from the second UAV-AS; and • instructing, by the first UAV-AS, the flight policy applicable for the second geographical service to the UAV, before the UAV has entered the second geographical service area. • determining, by the first UAV-AS, whether the UAV is going to leave the geographical service area towards a second geographical service area, wherein the second geographical service area is associated with a second UAV-AS; • querying, by the first UAV-AS, a flight policy applicable for the second geographical service area from the second UAV-AS; and • instructing, by the first UAV-AS, the flight policy applicable for the second geographical service to the UAV, before the UAV has entered the second geographical service area.
A pressure sensor comprising: a composite structure formed by a mat formed by nanotubes or nanowires arranged in a grid or mesh sandwiched between insulating dielectric layers (16, 18), electrodes (20, 22, 24) for deriving a sensor signal in response to deflection of the composite structure in response to a physical parameter, at least one of the electrodes connected to the mat, and a housing for supporting the composite structure to define a pressure sensing chamber and wherein the composite structure forms a diaphragm supported by the housing and deflectable in response to pressure, characterized in that said mat is formed by nanotubes or nanowires arranged in a grid or mesh which is woven. a composite structure formed by a mat formed by nanotubes or nanowires arranged in a grid or mesh sandwiched between insulating dielectric layers (16, 18), electrodes (20, 22, 24) for deriving a sensor signal in response to deflection of the composite structure in response to a physical parameter, at least one of the electrodes connected to the mat, and a housing for supporting the composite structure to define a pressure sensing chamber and wherein the composite structure forms a diaphragm supported by the housing and deflectable in response to pressure, characterized in that
A tumor-targeted adenovirus Ad-TD-hIL12 for use in treating renal cancer, characterized in that the type 5 adenovirus comprises the deletion of the three adenovirus genes E1A-CR2, E1B19K, and E3gp-19K and further comprises a fused cDNA sequence of p35 and p40 subunits of human IL12 placed under the control of the E3gp-19K promoter; wherein the amino acid sequences of the p35 and p40 subunits are SEQ ID NO: 1 and SEQ ID NO: 2, respectively; and the nucleotide sequences of the p35 and p40 subunits are SEQ ID NO: 3 and SEQ ID NO: 4, respectively. the amino acid sequences of the p35 and p40 subunits are SEQ ID NO: 1 and SEQ ID NO: 2, respectively; and the nucleotide sequences of the p35 and p40 subunits are SEQ ID NO: 3 and SEQ ID NO: 4, respectively.
A core sampling apparatus comprising: an inner tube configured to collect a core sample by means of a core catcher attached to one end of the core sampling apparatus; characterized by: an outer tube co-axially disposed on the outside of the inner tube, wherein the inner tube comprises a plurality of impregnation windows configured to allow resin to flow into the core sample, each window comprising a window opening and a window cover configured to cover the window opening, wherein the window cover opens outwardly from the inner tube. an inner tube configured to collect a core sample by means of a core catcher attached to one end of the core sampling apparatus; characterized by: an outer tube co-axially disposed on the outside of the inner tube, wherein the inner tube comprises a plurality of impregnation windows configured to allow resin to flow into the core sample, each window comprising a window opening and a window cover configured to cover the window opening, wherein the window cover opens outwardly from the inner tube. an outer tube co-axially disposed on the outside of the inner tube, wherein the inner tube comprises a plurality of impregnation windows configured to allow resin to flow into the core sample, each window comprising a window opening and a window cover configured to cover the window opening, wherein the window cover opens outwardly from the inner tube.
A method for degasification of diathermic oil in a circuit of use, characterized in that it comprises the following steps: - collecting a sample of diathermic oil from said circuit of use and analytically determining the temperature value T0 corresponding to the flash point of said diathermic oil; - analytically determining the distillation curve of said sample of diathermic oil and acquiring the related temperature values of distillation and volume of the substances contained; - diverting said diathermic oil from said circuit of use; - regulating the temperature of said diathermic oil, taking it to the temperature value T0 lower than the flash point to favour the formation of gases that develop around this temperature T0; - applying the vacuum to said diathermic oil, at a preset pressure value P0 and for a time interval Δt0 predetermined by the distillation curve so as to totally suck the gas released in said conditions; - collecting the gas released via the application of vacuum and sending it to a discharge point; - re-introducing said diathermic oil into its circuit of use; - regulating the temperature of said diathermic oil again, increasing it by a value Δt and taking it to a value Ti higher than the previous one, and repeating the subsequent steps for n values of predetermined incremental temperature T1, T2, T3,..., Tn until reaching the temperature of use of said diathermic oil in said circuit. - collecting a sample of diathermic oil from said circuit of use and analytically determining the temperature value T0 corresponding to the flash point of said diathermic oil; - analytically determining the distillation curve of said sample of diathermic oil and acquiring the related temperature values of distillation and volume of the substances contained; - diverting said diathermic oil from said circuit of use; - regulating the temperature of said diathermic oil, taking it to the temperature value T0 lower than the flash point to favour the formation of gases that develop around this temperature T0; - applying the vacuum to said diathermic oil, at a preset pressure value P0 and for a time interval Δt0 predetermined by the distillation curve so as to totally suck the gas released in said conditions; - collecting the gas released via the application of vacuum and sending it to a discharge point; - re-introducing said diathermic oil into its circuit of use; - regulating the temperature of said diathermic oil again, increasing it by a value Δt and taking it to a value Ti higher than the previous one, and repeating the subsequent steps for n values of predetermined incremental temperature T1, T2, T3,..., Tn until reaching the temperature of use of said diathermic oil in said circuit.
Method for the additive manufacturing of at least one component by applying powder material in layers to a substrate or to a previously manufactured part of the component and by bonding the powder material layer-by-layer to the component according to the three-dimensional structure of the component, at least one documentation body being manufactured under the same conditions as the component in parallel with the layer-by-layer manufacturing of the component, characterized in that - the documentation body is produced in the form of a vessel, the powder layers used during the manufacturing being received in the vessel and - the vessel is closed off and forms a self-contained, integral shroud that completely encloses a hollow space in which the powder to be documented is deposited layer-by-layer according to the use during the manufacturing, such that the powder can be stored for a long period of time without being influenced by the environment and changes caused thereby. - the documentation body is produced in the form of a vessel, the powder layers used during the manufacturing being received in the vessel and - the vessel is closed off and forms a self-contained, integral shroud that completely encloses a hollow space in which the powder to be documented is deposited layer-by-layer according to the use during the manufacturing, such that the powder can be stored for a long period of time without being influenced by the environment and changes caused thereby.
Apparatus for inhalation anaesthesia of piglets, comprising: - a housing containing preparation means for preparing an anaesthetic gas and control means for controlling the preparation means, - at least one treatment station with at least two support devices for supporting a piglet and with in each case an anaesthesia mask (7, 7'), wherein each anaesthesia mask is connected to the housing via a separate hose connection, and wherein the housing, in particular the device components arranged in the housing, and the treatment station form mutually separate or separable installation components, which are operatively connected to each other via releasable and flexible connecting means, characterized in that each anaesthesia mask is provided with a suction system for aspiration of emerging anaesthetic gas, and in that the housing contains at least one pump for aspiration of emerging anaesthetic gas from the anaesthesia masks (7, 7'), wherein the pump is connected on the pressure side to a gas outlet opening on the housing, and wherein the pump is connected on the suction side to a respective suction opening (14, 14') on the housing, on which suction opening (14, 14') a suction hose (15, 15') leading to the anaesthesia masks is secured releasably. - a housing containing preparation means for preparing an anaesthetic gas and control means for controlling the preparation means, - at least one treatment station with at least two support devices for supporting a piglet and with in each case an anaesthesia mask (7, 7'), wherein each anaesthesia mask is connected to the housing via a separate hose connection, and wherein the housing, in particular the device components arranged in the housing, and the treatment station form mutually separate or separable installation components, which are operatively connected to each other via releasable and flexible connecting means, characterized in that each anaesthesia mask is provided with a suction system for aspiration of emerging anaesthetic gas, and in that the housing contains at least one pump for aspiration of emerging anaesthetic gas from the anaesthesia masks (7, 7'), wherein the pump is connected on the pressure side to a gas outlet opening on the housing, and wherein the pump is connected on the suction side to a respective suction opening (14, 14') on the housing, on which suction opening (14, 14') a suction hose (15, 15') leading to the anaesthesia masks is secured releasably.
A waste heat recovery system for recovering heat from a number of turbocharger stages of an engine, the system comprising: a simple organic rankine cycle system comprising a working fluid therein; and a plurality of charge air coolers in communication with the number of turbocharger stages of the engine and the simple organic rankine cycle system, wherein the plurality of charge air coolers are configured to preheat the working fluid of the simple organic rankine cycle system; wherein the plurality of charge air coolers is positioned in a plurality of parallel branches of the simple organic rankine cycle system. a simple organic rankine cycle system comprising a working fluid therein; and a plurality of charge air coolers in communication with the number of turbocharger stages of the engine and the simple organic rankine cycle system, wherein the plurality of charge air coolers are configured to preheat the working fluid of the simple organic rankine cycle system; wherein the plurality of charge air coolers is positioned in a plurality of parallel branches of the simple organic rankine cycle system.
Training device (100, 200, 300, 400, 500), which comprises: - a frame (101, 201, 301, 401, 501) comprising two central tracks (1a, 1b) and at least one side track (6a, 6b, 6c) positioned either side of the two central tracks; - for each central track, a pad (3a, 3b) sliding on this central track; - at least one slide block (4a, 4b, 4c) sliding on a side track; and - for at least one element from among a slide block and/or at least one pad, friction means (16, 17, 18) configured to induce a dynamic friction force on the track on which this element slides, and characterised in that the friction means comprise at least one removable weight. - a frame (101, 201, 301, 401, 501) comprising two central tracks (1a, 1b) and at least one side track (6a, 6b, 6c) positioned either side of the two central tracks; - for each central track, a pad (3a, 3b) sliding on this central track; - at least one slide block (4a, 4b, 4c) sliding on a side track; and - for at least one element from among a slide block and/or at least one pad, friction means (16, 17, 18) configured to induce a dynamic friction force on the track on which this element slides, and characterised in that the friction means comprise at least one removable weight.
Method for detecting a target comprising a processing of a radar image of the SAR type, comprising the steps involving: - loading an initial radar image (I SAR) of the SAR type of a first zone, - loading an initial optical image (I opt) of a second zone which at least partially covers the first zone, the initial images having been, if necessary, pre-processed so that they have the same acquisition axis, - loading additional graphic data (Data) associated with the initial optical image and relating to geographical elements present in the initial optical image, the geographical elements comprising structures which are fixed to the ground and the additional graphic data comprising geometric shapes which are close to the structures fixed to the ground, - processing at least one of the two initial images in order to make them capable of being superimposed in a coverage zone between the first zone and the second zone in order to obtain a superimposed radar image (I SAR / sup) and a superimposed optical image (I opt/sup), - determining additional superimposed graphic data (Data sup) from the additional graphic data (Data) and the superimposed optical image (I opt/sup), - locating geographical elements present in the superimposed SAR image (I SAR/sup) at least from the additional superimposed graphic data (Data sup), - determining positions of potential targets from the superimposed SAR image, - identifying potentially false alarms by comparing the position of potential targets identified in the radar image superimposed with geometric shapes close to structures which are fixed to the ground located in the location step. - loading an initial radar image (I SAR) of the SAR type of a first zone, - loading an initial optical image (I opt) of a second zone which at least partially covers the first zone, the initial images having been, if necessary, pre-processed so that they have the same acquisition axis, - loading additional graphic data (Data) associated with the initial optical image and relating to geographical elements present in the initial optical image, the geographical elements comprising structures which are fixed to the ground and the additional graphic data comprising geometric shapes which are close to the structures fixed to the ground, - processing at least one of the two initial images in order to make them capable of being superimposed in a coverage zone between the first zone and the second zone in order to obtain a superimposed radar image (I SAR / sup) and a superimposed optical image (I opt/sup), - determining additional superimposed graphic data (Data sup) from the additional graphic data (Data) and the superimposed optical image (I opt/sup), - locating geographical elements present in the superimposed SAR image (I SAR/sup) at least from the additional superimposed graphic data (Data sup), - determining positions of potential targets from the superimposed SAR image, - identifying potentially false alarms by comparing the position of potential targets identified in the radar image superimposed with geometric shapes close to structures which are fixed to the ground located in the location step.
Illumination device having at least one semiconductor light source arrangement that is fixed to a carrier at at least three locations by means of a press fit, characterized in that the press fits at at least two of the three locations on the carrier are embodied as clamp-type holding devices.
A device for the preparation of a brewed beverage, with a vessel support for supporting a drinking vessel or a serving vessel, with a holding device for holding a receptacle for containing a brewing substance, especially tea, wherein the holding device comprises at least one locking element, wherein the receptacle with the brewing substance can be locked into the holding device by the at least one locking element, and with a displacement unit for the displacement of the holding device, wherein the displacement unit is configured in such a manner that, during the preparation of the brewed beverage, the holding device is moved automatically up-and-down and/or to-and-fro and/or in rotation in the drinking vessel or in the serving vessel, characterised in that the holding device comprises a tubular body, which is configured in such a manner that the receptacle with the brewing substance can be inserted into the holding device, and that the locking elements are held in a moveable manner in an aperture of the tubular body facing towards the drinking vessel or the serving vessel and configured to prevent an undesired slipping of the receptacle with the brewing substance. with a vessel support for supporting a drinking vessel or a serving vessel, with a holding device for holding a receptacle for containing a brewing substance, especially tea, wherein the holding device comprises at least one locking element, wherein the receptacle with the brewing substance can be locked into the holding device by the at least one locking element, and with a displacement unit for the displacement of the holding device, wherein the displacement unit is configured in such a manner that, during the preparation of the brewed beverage, the holding device is moved automatically up-and-down and/or to-and-fro and/or in rotation in the drinking vessel or in the serving vessel, characterised in that the holding device comprises a tubular body, which is configured in such a manner that the receptacle with the brewing substance can be inserted into the holding device, and that the locking elements are held in a moveable manner in an aperture of the tubular body facing towards the drinking vessel or the serving vessel and configured to prevent an undesired slipping of the receptacle with the brewing substance.
A vehicle arresting unit, usable for arrestment of a vehicle, comprising: i) a block of compressible material having top, bottom and side surfaces; ii) a cap assembly comprising frangible material positioned above the block top surface, and iii) water impervious material positioned below the bottom surface of the block; wherein the cap assembly includes: a) a top tray of said frangible material having a top portion positioned above the block top surface and edge portions extending downward from a lower surface of the top portion and b) tray extensions extending from the edge portions of said top tray and adhered to side surfaces of said block, the top tray fabricated to readily break during arrestment of said vehicle; and wherein the water impervious material forms a bottom tray having a bottom portion positioned below the bottom surface of said block and edge portions extending upward from the bottom portion, the bottom tray configured to impede entry of ground surface moisture; characterized in that: the cap assembly is prefabricated separately from the block of compressible material and the water impervious material. i) a block of compressible material having top, bottom and side surfaces; ii) a cap assembly comprising frangible material positioned above the block top surface, and iii) water impervious material positioned below the bottom surface of the block; a) a top tray of said frangible material having a top portion positioned above the block top surface and edge portions extending downward from a lower surface of the top portion and b) tray extensions extending from the edge portions of said top tray and adhered to side surfaces of said block, the top tray fabricated to readily break during arrestment of said vehicle; the cap assembly is prefabricated separately from the block of compressible material and the water impervious material.