mhurhangee/ep-ind-claims huggingface dataset:
A container comprising: a metal end defining at least one opening into the container; a peelable membrane comprising: an outer layer; and a heat seal layer, wherein the heat seal layer is permanently sealed to the metal end to close the at least one opening, characterized in that: the peelable membrane further comprises a tacky layer, wherein the tacky layer is bonded to the outer layer, wherein the heat seal layer is bonded to the tacky layer, and wherein the tacky layer allows the peelable membrane to be resealable onto the metal end. a metal end defining at least one opening into the container; a peelable membrane comprising: an outer layer; and a heat seal layer, an outer layer; and a heat seal layer, wherein the heat seal layer is permanently sealed to the metal end to close the at least one opening, characterized in that: the peelable membrane further comprises a tacky layer, wherein the tacky layer is bonded to the outer layer, wherein the heat seal layer is bonded to the tacky layer, and wherein the tacky layer allows the peelable membrane to be resealable onto the metal end. the peelable membrane further comprises a tacky layer, wherein the tacky layer is bonded to the outer layer, wherein the heat seal layer is bonded to the tacky layer, and wherein the tacky layer allows the peelable membrane to be resealable onto the metal end.
Anticounterfeit multilayer device comprising: - a color shift layer comprising one or more photonic crystals; - a holographic layer comprising a holographic structure occupying all the holographic layer or partially occupying the holographic layer so that the holographic layer comprises one or more portions devoid of the holographic structure; - a reflecting layer; wherein the color shift layer overlaps the holographic layer and the holographic layer overlaps the reflecting layer, characterized in that the color shift layer is made by one or more one-dimensional photonic crystals having a periodicity of the refraction index in a direction transversal to a plane defined by the color shift layer itself. - a color shift layer comprising one or more photonic crystals; - a holographic layer comprising a holographic structure occupying all the holographic layer or partially occupying the holographic layer so that the holographic layer comprises one or more portions devoid of the holographic structure; - a reflecting layer; wherein the color shift layer overlaps the holographic layer and the holographic layer overlaps the reflecting layer, characterized in that the color shift layer is made by one or more one-dimensional photonic crystals having a periodicity of the refraction index in a direction transversal to a plane defined by the color shift layer itself.
In a computing environment, a method comprising: receiving signals at a candidate device output from a source device, the signals corresponding to a physical movement of that source device directed towards setting up a connection with a target device, wherein receiving the signals comprises detecting acoustic output from the source device including a first acoustic signal corresponding to a start of the physical movement and a second acoustic signal corresponding to an end of the physical movement; using (704, 706) the signals to report data corresponding to a physical location of the candidate device to the source device, wherein using the signals to report data corresponding to the physical location comprises computing a time difference between the first signal and the second signal; providing the time difference to the source device; receiving data from the source device indicating that the source device has selected the candidate device as the target device; and communicating to set up a network connection with the source device. receiving signals at a candidate device output from a source device, the signals corresponding to a physical movement of that source device directed towards setting up a connection with a target device, wherein receiving the signals comprises detecting acoustic output from the source device including a first acoustic signal corresponding to a start of the physical movement and a second acoustic signal corresponding to an end of the physical movement; using (704, 706) the signals to report data corresponding to a physical location of the candidate device to the source device, wherein using the signals to report data corresponding to the physical location comprises computing a time difference between the first signal and the second signal; providing the time difference to the source device; receiving data from the source device indicating that the source device has selected the candidate device as the target device; and communicating to set up a network connection with the source device.
A system for delivering an orbital implant to an orbit comprising: a delivery device (700, 1200), wherein the delivery device comprises: a cannula (702, 1202) defining a channel extending between an inlet and an outlet; a tongue (706, 1204) slidably connected to the cannula and positioned to extend at least partially through the channel, wherein the tongue is moveable between a retracted position in which a distal end of the tongue is positioned in the channel and an advanced position in which a distal end of the tongue is positioned distally of the outlet of the channel; and a plunger (708, 1000, 1206) slidably connected to the cannula and positioned to extend at least partially through the channel; characterised in that the cannula comprises a blade (812, 1218) for forming an opening in an orbital tissue. a cannula (702, 1202) defining a channel extending between an inlet and an outlet; a tongue (706, 1204) slidably connected to the cannula and positioned to extend at least partially through the channel, wherein the tongue is moveable between a retracted position in which a distal end of the tongue is positioned in the channel and an advanced position in which a distal end of the tongue is positioned distally of the outlet of the channel; and a plunger (708, 1000, 1206) slidably connected to the cannula and positioned to extend at least partially through the channel; characterised in that the cannula comprises a blade (812, 1218) for forming an opening in an orbital tissue.
A combustor having a double wall structure comprising an annular inner wall and an annular outer wall, the annular outer wall having an inner surface, an outer surface and a plurality of circumferentially spaced apertures, the annular inner wall comprising a plurality of circumferentially arranged tiles (38a,38b,38c), the tiles (38a38b,38c) have at least one interlocking member at a first circumferential end of the tile (38a,38b,38c) and at least one interengaging member at a second circumferential end of the tile (38a,38b,38c), each tile (38a, 38b, 38c) having two walls (50a, 50b) which extend radially outwards at first and second circumferentially spaced ends, each tile (38a, 38b, 38c) having two further walls (50c, 50d) which extend radially outwards at first and second axial edges, each tile (38a, 38b, 38c) comprising a rectangular shape having a curved outer surface, each interlocking member extending through a corresponding one of the circumferentially spaced apertures in the annular outer wall, each interlocking member extending radially and circumferentially from the first circumferential end of the tile (38a,38b,38c), the circumferentially extending portion of each interlocking member resting on the outer surface of the annular outer wall, the at least one interengaging member extending circumferentially from a second wall at the second circumferential end of the tile (38a,38b,38c) and the interengaging member at the second circumferential end of the tile (38a,38b,38c) engaging with the first circumferential end of an adjacent tile (38a,38b,38c), the first wall at the first circumferential end has at least one cutaway section to receive an interengaging member, wherein the circumferentially extending portions of the interlocking members being arranged at a greater distance from the curved outer surfaces of the tiles (38a, 38b, 38c) than the interengaging members, the walls (50a, 50b, 50c, 50d) being located radially between the inner surface of the annular outer wall and the curved outer surface of the tiles (38a, 38b, 38c), each interengaging member being located radially between the inner surface of the annular outer wall and the curved outer surfaces of the tiles (38a, 38b, 38C).
A chiller apparatus containing a composition comprising from 51 to 67 weight percent 2,3,3,3-tetrafluoropropene and from 49 to 33 weight percent 1,1,1,2-tetrafluoroethane, wherein the chiller apparatus is a screw chiller apparatus.
An antenna for a radar-based fill level measuring device, comprising: - A holder with a media-tight cavity, - a coupling structure, which can be used to couple a radar signal along a main beam axis (a) into the cavity, and - a lens to refract the radar signal, which seals the cavity of the holder in such a way that the coupling structure is located in the focal point of the lens and that the lens is aligned in the main beam axis (a) of the coupling structure, characterized in that the holder, the coupling structure, and the lens are made from the same type of plastic. - A holder with a media-tight cavity, - a coupling structure, which can be used to couple a radar signal along a main beam axis (a) into the cavity, and - a lens to refract the radar signal, which seals the cavity of the holder in such a way that the coupling structure is located in the focal point of the lens and that the lens is aligned in the main beam axis (a) of the coupling structure, characterized in that the holder, the coupling structure, and the lens are made from the same type of plastic.
A method of hermetically sealing an active layer, being characterised by the following steps: a. forming on a first substrate an integral preformed edge, b. positioning on the first substrate an active layer, c. positioning a second substrate in close contact with the active layer, leaving a gap between preformed edge and an edge of the active layer, d. adding a seal material to the gap, and e. applying an energy source to heat and flow the seal material to fully fill the gap thereby forming a seal therein.
A motor vehicle with an axle arrangement, comprising two opposite wheel carriers, which can be connected to a body of the motor vehicle by means of suspension links, and a transverse leaf spring, which is connected to both wheel carriers and is manufactured in one piece from fibre-reinforced plastic and has at least two strips spaced apart from one another, characterised in that the transverse leaf spring is integrated at least proportionately in a shear field, which extends between the two wheel carriers and is fixedly connected on both sides to the structure or the body of the vehicle and protrudes beyond the transverse leaf spring as considered in the vehicle longitudinal direction.
A method performed by an Internet-of-Things, IoT, device for requesting a service in a network, the method comprising: - sending a request to a core network, requesting attachment to a mobile network; wherein said sending the request is performed when the IoT device is switched on or when the IoT device roams from a home network to a visited network; - receiving an acknowledgement from the core network confirming attachment to the mobile network, characterized by: - transmitting, a data container to the core network, including features or functions needed for running the requested service; and - running the requested service, set up by a network edge device being a Mobile Edge Computing, MEC, server with virtual network functionality, VNF, when the core network validates the content of the data container. - sending a request to a core network, requesting attachment to a mobile network; wherein said sending the request is performed when the IoT device is switched on or when the IoT device roams from a home network to a visited network; - receiving an acknowledgement from the core network confirming attachment to the mobile network, characterized by: - transmitting, a data container to the core network, including features or functions needed for running the requested service; and - running the requested service, set up by a network edge device being a Mobile Edge Computing, MEC, server with virtual network functionality, VNF, when the core network validates the content of the data container. - transmitting, a data container to the core network, including features or functions needed for running the requested service; and - running the requested service, set up by a network edge device being a Mobile Edge Computing, MEC, server with virtual network functionality, VNF, when the core network validates the content of the data container.
Laminated pane comprising an outer pane and an inner pane which are connected to one another via a thermoplastic intermediate layer, characterized in that the laminated pane has at least one functional film which contains at least one metal layer, and the thermoplastic intermediate layer has at least one thermoplastic film which contains refractive index-reducing media and the refractive index of the thermoplastic film is reduced by at least 0.05 in the optically visible range between 380 nm - 780 nm by means of these refractive index-reducing media.
An electrosurgical system, comprising: an electrosurgical instrument configured to generate first and second data streams; and a transmission circuit configured to convert the first and second data streams into a pulsed transmission signal, wherein a first signal property of the transmission signal is representative of the first data stream and a second signal property of the transmission signal is representative of the second data stream, the transmission circuit further configured to process the transmission signal to decode the first signal property into the first data stream and the second signal property into the second data stream, wherein the electrosurgical instrument includes: input controls configured to generate control signals which control an electrosurgical generator; and sensors configured to measure at least one of an energy property and a tissue property and generate sensor signals representative thereof, wherein the first data stream is selected from the group consisting of control signals and sensor signals and the second data stream is an identifier for the electrosurgical instrument, wherein the second signal property is a pulse width of each of the pulses of the transmission signal. an electrosurgical instrument configured to generate first and second data streams; and a transmission circuit configured to convert the first and second data streams into a pulsed transmission signal, wherein a first signal property of the transmission signal is representative of the first data stream and a second signal property of the transmission signal is representative of the second data stream, the transmission circuit further configured to process the transmission signal to decode the first signal property into the first data stream and the second signal property into the second data stream, wherein the electrosurgical instrument includes: input controls configured to generate control signals which control an electrosurgical generator; and sensors configured to measure at least one of an energy property and a tissue property and generate sensor signals representative thereof, wherein the first data stream is selected from the group consisting of control signals and sensor signals and the second data stream is an identifier for the electrosurgical instrument, wherein the second signal property is a pulse width of each of the pulses of the transmission signal. input controls configured to generate control signals which control an electrosurgical generator; and sensors configured to measure at least one of an energy property and a tissue property and generate sensor signals representative thereof, wherein the first data stream is selected from the group consisting of control signals and sensor signals and the second data stream is an identifier for the electrosurgical instrument, wherein the second signal property is a pulse width of each of the pulses of the transmission signal.
A thin film-manufacturing device comprising a film-forming vessel capable of being evacuated to a desired vacuum, an upper cap for the film-forming vessel, a shower plate attached to the rear surface of the upper cap, characterized in that the device further comprises a heat-exchange means disposed within the upper cap and a space defined in the center portion between the upper cap and the shower plate when attaching the shower plate to the rear surface of the upper cap, in which the surface of the shower plate and the upper cap other than that facing the space come in contact with each other and the heat exchange means is formed in such a manner as to cover the lateral and upper side of the space, and further a stage cover surrounding an outer peripheral side wall of a substrate supporting stage, a deposition-inhibiting plate surrounding the stage cover and arranged proximate to the side wall of the stage cover, an opening formed in the outer periphery of the upper cap on a side of the deposition-inhibiting plate opposite the substrate supporting stage, wherein the opening is configured to receive an inert gas and communicate the inert gas to the upper space of the film forming vessel, a gas exhaust path formed between the stage cover and the deposition-inhibiting plate each having a flat surface, and an elevating mechanism for ascending the deposition-inhibiting plate during film-formation and descending the deposition-inhibiting plate during transportation of the substrate.
A coating composition comprising, a physically curing, reactively self-curing and/or externally curing component, comprising, based on the total solids content of the coating formulation from 0.1% by weight to 2.5% by weight of a branched polyester polyol, preparable by: (a) reacting a polyol comprising at least three hydroxyl groups with an aliphatic dicarboxylic acid having from 6 to 36 carbon atoms or an esterifiable derivative of the aliphatic dicarboxylic acid selected from their anhydrides and esterifiable esters to form a hydroxyl-functional first intermediate product; (b) reacting the first intermediate product with a cyclic carboxylic acid anhydride to form a carboxylic acid-functional second intermediate product; and (c) reacting the second intermediate product with an epoxide-functional compound having one epoxide group to form the branched polyester polyol; and in case of being an externally curing component a crosslinking component, in case comprises one or more externally curing components; and optionally a diluent component. a physically curing, reactively self-curing and/or externally curing component, comprising, based on the total solids content of the coating formulation from 0.1% by weight to 2.5% by weight of a branched polyester polyol, preparable by: (a) reacting a polyol comprising at least three hydroxyl groups with an aliphatic dicarboxylic acid having from 6 to 36 carbon atoms or an esterifiable derivative of the aliphatic dicarboxylic acid selected from their anhydrides and esterifiable esters to form a hydroxyl-functional first intermediate product; (b) reacting the first intermediate product with a cyclic carboxylic acid anhydride to form a carboxylic acid-functional second intermediate product; and (c) reacting the second intermediate product with an epoxide-functional compound having one epoxide group to form the branched polyester polyol; and in case of being an externally curing component (a) reacting a polyol comprising at least three hydroxyl groups with an aliphatic dicarboxylic acid having from 6 to 36 carbon atoms or an esterifiable derivative of the aliphatic dicarboxylic acid selected from their anhydrides and esterifiable esters to form a hydroxyl-functional first intermediate product; (b) reacting the first intermediate product with a cyclic carboxylic acid anhydride to form a carboxylic acid-functional second intermediate product; and (c) reacting the second intermediate product with an epoxide-functional compound having one epoxide group to form the branched polyester polyol; and in case of being an externally curing component a crosslinking component, in case comprises one or more externally curing components; and optionally a diluent component.
Method for forming an ignitable air/fuel mixture in a combustion chamber of a spark-ignition internal combustion engine with direct injection, wherein - combustion air is fed into a combustion chamber via at least one intake port, - fuel is injected into the combustion chamber by means of a fuel injector located in the combustion chamber, - a formed air/fuel mixture is ignited by means of at least one spark plug located in the combustion chamber, - wherein the fuel is injected in several sub-quantities, - in a homogeneous operating mode of the internal combustion engine, the fuel injection is organised such that a first and a second sub-quantity are introduced in the intake stroke and a third sub-quantity is introduced in the compression stroke, characterised in that - the formed air/fuel mixture is ignited at a distance between 0° crank angle and 100° crank angle after the end of the injection of the third sub-quantity, - the duration of the injection of the third sub-quantity is varied in a load-dependent manner in such a way that it amounts to approximately 5% to 50% of the total fuel quantity, - the process starts with the injection of the first sub-quantity in the intake stroke between 300° crank angle and 200° crank angle before top dead centre, - a duration between the end of the injection of the first sub-quantity and the start of the injection of the second sub-quantity is approximately 10° crank angle to 60° crank angle, and - the second sub-quantity is varied in a load-dependent manner and may amount to less than 1% of the total fuel injection quantity. - combustion air is fed into a combustion chamber via at least one intake port, - fuel is injected into the combustion chamber by means of a fuel injector located in the combustion chamber, - a formed air/fuel mixture is ignited by means of at least one spark plug located in the combustion chamber, - wherein the fuel is injected in several sub-quantities, - in a homogeneous operating mode of the internal combustion engine, the fuel injection is organised such that a first and a second sub-quantity are introduced in the intake stroke and a third sub-quantity is introduced in the compression stroke, - the formed air/fuel mixture is ignited at a distance between 0° crank angle and 100° crank angle after the end of the injection of the third sub-quantity, - the duration of the injection of the third sub-quantity is varied in a load-dependent manner in such a way that it amounts to approximately 5% to 50% of the total fuel quantity, - the process starts with the injection of the first sub-quantity in the intake stroke between 300° crank angle and 200° crank angle before top dead centre, - a duration between the end of the injection of the first sub-quantity and the start of the injection of the second sub-quantity is approximately 10° crank angle to 60° crank angle, and - the second sub-quantity is varied in a load-dependent manner and may amount to less than 1% of the total fuel injection quantity.