mhurhangee/patent-ind-claim-en huggingface dataset:
Airborne system , comprising: - an airborne unit configured as an aerial vehicle , - an electrical power source/sink unit configured to supply, receive and/or store electrical power, and - a coupling unit for electrically coupling the electrical power source/sink unit to or within the airborne unit , wherein: - the airborne unit comprises a plurality of motor/generator units each of which having at least one wind harvesting/propelling rotor mechanically coupled thereto, - the coupling unit is configured to electrically couple the electrical power source/sink unit with motor/generator units in order to transmit electrical power between the electrical power source/sink unit and motor/generator units , and - groups of motor/generator units and their assigned electrical transmission paths are electrically and/or galvanically uncoupled with respect to each other at least in the airborne unit and in the coupling unit. - an airborne unit configured as an aerial vehicle , - an electrical power source/sink unit configured to supply, receive and/or store electrical power, and - a coupling unit for electrically coupling the electrical power source/sink unit to or within the airborne unit , - the airborne unit comprises a plurality of motor/generator units each of which having at least one wind harvesting/propelling rotor mechanically coupled thereto, - the coupling unit is configured to electrically couple the electrical power source/sink unit with motor/generator units in order to transmit electrical power between the electrical power source/sink unit and motor/generator units , and - groups of motor/generator units and their assigned electrical transmission paths are electrically and/or galvanically uncoupled with respect to each other at least in the airborne unit and in the coupling unit.
A laminated building material, preferably board, for use in furniture elements, comprising: a building material having a first side (S1) and a second side (S2), a first groove , provided adjacent said first side (S1) of said building material , a second groove , provided adjacent said second side (S2) of said building material , by which first and second grooves the building material is divided into a first building material part and a second building material part , and a laminating foil , applied on said first side (S1) of the building material and covering said first groove , wherein a first groove half of said second groove , at said first building material part , is profiled to have first and second surfaces extending in at least two planes: a first plane (Pes) including said second surface that forms an angle (α) to said second side (S2) of said building material and a second plane (P 62 ) including said first surface respectively, that forms an angle (β) to said first plane (P 63 ), and a second groove half of said second groove , at said second building material part , has a surface extending in a fourth plane (P 65 ) to engage with said first surface in the second plane (P 62 ) when said first and said second building material parts are folded towards each other with said laminating foil acting as a hinge, whereby the second surface in said first plane (P 63 ) engages with a supporting surface portion of the second side (S2) of said second building material part adjacent said second groove half , wherein said profile of said first groove half of said second groove , at said first building material part , forms a receiving recess for a locking shoulder formed on said second building material part , which locking shoulder is formed at least partly between said supporting surface portion (1 1a) and the surface extending in said fourth plane (P 65 ) of said second groove half , arranged to form a bead or beveled furniture corner when said first and said second building material parts are folded towards each other with said laminating foil acting as a hinge, where a shape of the bead or bevel is defined by a cross-sectional shape of said first groove , characterized in that said supporting surface portion of the second side (S2) of said second building material part adjacent said second groove half , has been processed, preferably by means of machining, to be precisely shaped to fit with said second surface , and in that the transversal width (W4) of said first surface is larger than the remaining width (W3) of said second groove , in the non-folded configuration.
Process for synthesizing a copolymer bearing imidazole pendant groups, which process comprises the radical copolymerization of a monomer mixture comprising a terminal olefin and a functional monomer bearing a (meth)acryloyl group and an imidazole group, the terminal olefin being ethylene, a conjugated diene or the mixture thereof, the conjugated diene being butadiene, isoprene or the mixture thereof, the monomer mixture before polymerization comprising between 50 mol% and 99.9 mol% of terminal olefin.
A device for cleaning the external auditory meatus, comprising a guide sleeve with a proximal outlet portion for partial insertion into the auditory meatus and an instrumentation rod which can be axially passed through the guide sleeve and which has, at a proximal end region , a cleaning apparatus with at least one cleaning means which runs circumferentially and expands elastically in the radial direction, characterized in that an inner cross-section of the proximal outlet portion is smaller than an outer cross-section of the cleaning means in a radially expanded state, wherein the at least one cleaning means can be arranged within the proximal outlet portion in a radially compressed state in which the cleaning means is bent towards the longitudinal axis of the instrumentation rod in the distal direction, such that the at least one cleaning means becomes upright while changing to the radially expanded state when it moves out of the proximal outlet portion in the proximal direction.
Micromachined free-diffusion liquid-junction reference electrode, comprising a reservoir for containing an electrolyte, an internal electrode in the reservoir for contacting with the electrolyte when present, a pinhole for providing a fluidic contact to a sample solution, and at least one high-aspect-ratio channel , connecting the reservoir and the pinhole, the aspect ratio being the ratio of the length and the width of the channel, and being in the range 100-10000:1, wherein the electrolyte can freely diffuse from the reservoir to the pinhole through the high-aspect-ratio channel and wherein the reservoir diameter is larger than the high aspect-ratio channel width.
Device for supporting at least two radiant heating tubes in a furnace chamber of an industrial furnace, wherein each radiant heating tube is attached at one end to a respective burner and is held against a first furnace wall of the furnace chamber , wherein the free closed end of the radiant heating tubes projects into the furnace chamber , wherein the device has a connecting element to which at least two radiant tubes can be connected transversely to the axial direction (A), wherein the connecting element has an attachment which extends in the axial direction (A) of the radiant heating tubes and which is configured to rest in a holder in the furnace chamber in the axial direction, characterized in that the connecting element is configured such that each radiant heating tube is displaceable relative to the connecting element in the axial direction (A) of the radiant heating tubes , wherein the attachment is configured such that it rests immovably in the holder in the axial direction (A) of the radiant heating tubes and/or can be securely connected to the holder , or characterized in that the connecting element is configured such that a radiant heating tube can be fixed in the axial direction (A) and each further radiant heating tube can be displaced in the axial direction (A) relative to the connecting element , wherein the attachment rests in the holder so as to be displaceable in the axial direction (A) of the radiant heating tubes . wherein the free closed end of the radiant heating tubes projects into the furnace chamber , wherein the device has a connecting element to which at least two radiant tubes can be connected transversely to the axial direction (A), wherein the connecting element has an attachment which extends in the axial direction (A) of the radiant heating tubes and which is configured to rest in a holder in the furnace chamber in the axial direction, characterized in that the connecting element is configured such that each radiant heating tube is displaceable relative to the connecting element in the axial direction (A) of the radiant heating tubes , wherein the attachment is configured such that it rests immovably in the holder in the axial direction (A) of the radiant heating tubes and/or can be securely connected to the holder , or characterized in that the connecting element is configured such that a radiant heating tube can be fixed in the axial direction (A) and each further radiant heating tube can be displaced in the axial direction (A) relative to the connecting element , wherein the attachment rests in the holder so as to be displaceable in the axial direction (A) of the radiant heating tubes .
An intramedullary (IM) nail insertion assembly, comprising: an IM nail extending longitudinally from a proximal end to a distal end , a proximal portion of the IM nail having an internal threading : and a connecting screw extending longitudinally from a proximal end to a distal end , a distal portion of the connecting screw having an external threading for engaging the internal threading of the IM nail , wherein one of the proximal portion of the IM nail and the distal portion of the connecting screw has a feature to resist a disengagement of the proximal portion from the distal portion, characterized in that the feature is a portion of the external threading of the connecting screw having a first pitch different from a remainder of the external threading having a second pitch or the feature is a portion of the internal threading of the IM nail having a first pitch different from a remainder of the internal threading having a second pitch or the feature is a portion of the external threading of the connecting screw forming a plurality of detents different from one another or the feature is a portion of the internal threading of the IM nail forming a plurality of detents different from one another. an IM nail extending longitudinally from a proximal end to a distal end , a proximal portion of the IM nail having an internal threading : and a connecting screw extending longitudinally from a proximal end to a distal end , a distal portion of the connecting screw having an external threading for engaging the internal threading of the IM nail , wherein one of the proximal portion of the IM nail and the distal portion of the connecting screw has a feature to resist a disengagement of the proximal portion from the distal portion, characterized in that the feature is a portion of the external threading of the connecting screw having a first pitch different from a remainder of the external threading having a second pitch or the feature is a portion of the internal threading of the IM nail having a first pitch different from a remainder of the internal threading having a second pitch or the feature is a portion of the external threading of the connecting screw forming a plurality of detents different from one another or the feature is a portion of the internal threading of the IM nail forming a plurality of detents different from one another.
A transducer (200; 300; 410, 420, 430; 500; 620; 720) comprising: a transducer material (210; 310; 418, 428, 438; 510; 610) passively responsive to a gradient of a property of a medium in which a portion of the transducer is disposed; a plurality of electrodes (240, 270; 360, 370; 414, 416, 426, 428, 434, 436; 522, 524, 532, 534, 542, 544; 614, 616, 624) coupled to the transducer material; and a measuring device (260; 390; 412, 422, 432; 520, 540; 612, 622) electrically coupled to the plurality of electrodes; wherein the transducer material comprises a solid having: an energy gap, being an energy range where no electron states exist, wherein the energy gap is sensitive to the gradient of the medium property; electrons and holes as its free charge carriers; and electron mobility μ e different from hole mobility μ h ; CHARACTERISED IN THAT: the measuring device is a diffusion current density measurement device that provides output indicative of the gradient by measuring the diffusion current density (220; 320, J D ; J D1 , J D2 , J D3 ) as a measurement of the current flow through the transducer material or the associated voltage potential across the transducer material without application of external fields. a transducer material (210; 310; 418, 428, 438; 510; 610) passively responsive to a gradient of a property of a medium in which a portion of the transducer is disposed; a plurality of electrodes (240, 270; 360, 370; 414, 416, 426, 428, 434, 436; 522, 524, 532, 534, 542, 544; 614, 616, 624) coupled to the transducer material; and a measuring device (260; 390; 412, 422, 432; 520, 540; 612, 622) electrically coupled to the plurality of electrodes; wherein the transducer material comprises a solid having: an energy gap, being an energy range where no electron states exist, wherein the energy gap is sensitive to the gradient of the medium property; electrons and holes as its free charge carriers; and electron mobility μ e different from hole mobility μ h ; CHARACTERISED IN THAT: the measuring device is a diffusion current density measurement device that provides output indicative of the gradient by measuring the diffusion current density (220; 320, J D ; J D1 , J D2 , J D3 ) as a measurement of the current flow through the transducer material or the associated voltage potential across the transducer material without application of external fields. an energy gap, being an energy range where no electron states exist, wherein the energy gap is sensitive to the gradient of the medium property; electrons and holes as its free charge carriers; and electron mobility μ e different from hole mobility μ h ; CHARACTERISED IN THAT: the measuring device is a diffusion current density measurement device that provides output indicative of the gradient by measuring the diffusion current density (220; 320, J D ; J D1 , J D2 , J D3 ) as a measurement of the current flow through the transducer material or the associated voltage potential across the transducer material without application of external fields.
Method for the electronic signature of an electronic document (DOC) by means of a handwritten signature, wherein detection means (EM) electronically detect the handwritten signature and at least one biometric feature characterizing the handwritten signature, wherein at least one characterizing means (KM1, KM2, KM3) produces a character sequence (HED, HES1, HES2) characterizing the electronic document (DOC), and wherein an electronic signature means (SM) produces an electronic signature record (SIG) for the electronic document (DOC) at least based on the character sequence (HED, HES1, HES2) characterizing the electronic document (DOC), characterized in that an output means (AM1, AM2) visually or acoustically exposes the character sequence (HED, HES1, HES2) characterizing the electronic document (DOC) for the signer for handwritten copying and the detection means (EM) electronically detects a character sequence (SBH) copied from the characterizing character sequence (HED, HES1, HES2) in handwriting and at least one biometric feature (BMH) characterizing the character sequence (SBH) copied in handwriting, and the electronic signature means (SM) generates the electronic signature record (SIG) for the electronic document (DOC) at least based on the character sequence (SBH) copied from the characterizing character sequence (HED, HES1, HES2) in handwriting and/or the biometric feature (BMH) characterizing the character sequence (SBH) copied in handwriting.
A method for manufacturing a composite material comprising the measures: a) Supplying of a carrier, said carrier being selected from the group of wooden materials, papers, cork, cardboards or mineral plates, b) Application of a textile surface structure onto at least one surface of the carrier, the textile surface structure having at least one binder in the B-stage state and having at least one functional material said functional material is applied after the binder, said textile surface structure was subjected to a strengthening by thermoplastic and/or chemical binders or by physical needling methods and/or the action of pressure before it was provided with the B-stage binder, said textile surface structure is a nonwoven being formed from fibers of synthesized polymers, ceramic fibers, mineral fibers or glass fibers and mixtures thereof, said functional material is a flameproofing agent, material for discharging electrostatic charges, material for screening off electromagnetic rays, organic or inorganic pigment, especially colored pigment, an anti-slippage coating and/or a coating with an elevated wear protection, the anti-slippage coating including SiC and/or SiO2 particles, preferably with a grain size of 2 to 5 mm, and the coating with an elevated wear protection including SiC and/or SiO2 particles whose grain size is below 1 mm, or decorative papers, c) Lamination of the construction obtained according to step b) under the action of pressure and heat so that the binder present in the B stage receives its final hardening, d) Optional application of at least one further protective layer and drying. a) Supplying of a carrier, said carrier being selected from the group of wooden materials, papers, cork, cardboards or mineral plates, b) Application of a textile surface structure onto at least one surface of the carrier, the textile surface structure having at least one binder in the B-stage state and having at least one functional material said functional material is applied after the binder, said textile surface structure was subjected to a strengthening by thermoplastic and/or chemical binders or by physical needling methods and/or the action of pressure before it was provided with the B-stage binder, said textile surface structure is a nonwoven being formed from fibers of synthesized polymers, ceramic fibers, mineral fibers or glass fibers and mixtures thereof, said functional material is a flameproofing agent, material for discharging electrostatic charges, material for screening off electromagnetic rays, organic or inorganic pigment, especially colored pigment, an anti-slippage coating and/or a coating with an elevated wear protection, the anti-slippage coating including SiC and/or SiO2 particles, preferably with a grain size of 2 to 5 mm, and the coating with an elevated wear protection including SiC and/or SiO2 particles whose grain size is below 1 mm, or decorative papers, c) Lamination of the construction obtained according to step b) under the action of pressure and heat so that the binder present in the B stage receives its final hardening, d) Optional application of at least one further protective layer and drying.
Method for the machine-based determination of the functional state of support rollers of a belt conveyor system during the operation of the belt conveyor system , wherein at least one unmanned vehicle with at least one imaging sensor system is provided, by means of which at least sections of the belt conveyor system can be captured in the form of image data, wherein image data of at least one subregion of the belt conveyor system is captured as thermal image data, in the captured image data of the belt conveyor system at least one identification image region position, in which at least one subregion of a support roller is imaged, is automatically determined, for each determined identification region position from the image data, an analysis image region position is automatically defined in the thermal image data, and in each defined analysis image region position, thermal image data are automatically analysed in order to automatically determine the functional state of support rollers , characterised in that the image data that can be captured by the imaging sensor system also comprise photographic image data in addition to the thermal image data, image data of at least one subregion of the belt conveyor system are also captured as photographic image data, the captured image data of the belt conveyor system , in which at least one identification image region position is determined automatically, are photographic image data in which photographic image data regions are automatically detected as image data regions, and the position of each detected photographic image data region is automatically provided as the identification image region position. in the captured image data of the belt conveyor system at least one identification image region position, in which at least one subregion of a support roller is imaged, is automatically determined, for each determined identification region position from the image data, an analysis image region position is automatically defined in the thermal image data, and in each defined analysis image region position, thermal image data are automatically analysed in order to automatically determine the functional state of support rollers , characterised in that the image data that can be captured by the imaging sensor system also comprise photographic image data in addition to the thermal image data, image data of at least one subregion of the belt conveyor system are also captured as photographic image data, the captured image data of the belt conveyor system , in which at least one identification image region position is determined automatically, are photographic image data in which photographic image data regions are automatically detected as image data regions, and the position of each detected photographic image data region is automatically provided as the identification image region position.
A device to thermoform a composite component and injection over-moulding a shape on one face of the composite component comprising a mould, comprising a shaping die paired with a punch thus defining a moulding cavity therebetween, the shaping die being mounted on a transfer device comprising: - a loading/unloading station to load/unload a blank onto the shaping die ; - an injection and mould-closure station between the punch and the shaping die for performing the thermoforming; - a high frequency generator ; - the shaping die comprising a network of inductors for heating its moulding surface and a cooling network to cool the moulding surface by a circulation of a fluid; - the loading/unloading station comprising a device to place an induction heated radiating panel facing the moulding surface of the shaping die, the inductor network of the shaping die and the one heating the induction heated radiating panel being supplied in high frequency current by the same single generator . - a loading/unloading station to load/unload a blank onto the shaping die ; - an injection and mould-closure station between the punch and the shaping die for performing the thermoforming; - a high frequency generator ; - the shaping die comprising a network of inductors for heating its moulding surface and a cooling network to cool the moulding surface by a circulation of a fluid; - the loading/unloading station comprising a device to place an induction heated radiating panel facing the moulding surface of the shaping die, the inductor network of the shaping die and the one heating the induction heated radiating panel being supplied in high frequency current by the same single generator .