mhurhangee/ep-ind-claims huggingface dataset:
A user equipment configured to support transmission on one carrier frequency at a time (120, 110), comprising: changing means for dynamically changing a physical layer configuration of transmission of uplink control information in an inter-site carrier aggregation network system, wherein when downlink data is delivered from both a macrocell and a small cell, the user equipment switches uplink frequency from the uplink frequency of the macrocell to an uplink frequency of the small cell, and vice versa, to transmit uplink control information; when downlink data is delivered only from the small cell, the user equipment does not switch uplink frequency to an uplink frequency of the macrocell to transmit uplink control information; and when downlink data is delivered only from the macrocell, the user equipment does not switch uplink frequency to an uplink frequency of the small cell to transmit uplink control information; and applying means for applying the dynamic change of the physical layer configuration between the user equipment, at least one transmitting device configured to provide the macrocell, and at least one transmitting device configured to provide the small cell. changing means for dynamically changing a physical layer configuration of transmission of uplink control information in an inter-site carrier aggregation network system, wherein when downlink data is delivered from both a macrocell and a small cell, the user equipment switches uplink frequency from the uplink frequency of the macrocell to an uplink frequency of the small cell, and vice versa, to transmit uplink control information; when downlink data is delivered only from the small cell, the user equipment does not switch uplink frequency to an uplink frequency of the macrocell to transmit uplink control information; and when downlink data is delivered only from the macrocell, the user equipment does not switch uplink frequency to an uplink frequency of the small cell to transmit uplink control information; and applying means for applying the dynamic change of the physical layer configuration between the user equipment, at least one transmitting device configured to provide the macrocell, and at least one transmitting device configured to provide the small cell.
A document of value and/or security with a halftone or duotone image with a grid (1, 1', 1") comprising a plurality of identically or similarly formed grid elements (10, 10a, 10b, 10c, 10e, 10f), wherein each grid element has an inner surface and an outer surface, wherein the outer surface partially or completely surrounds the inner surface and wherein • the outer surface is of a first colour and • the inner surface of the grid element (10, 10a, 10b, 10c, 10e, 10f) is of no colour or of a second colour which in terms of its brightness, its hue and/or its saturation is different from the first colour of the outer surface, characterised in that the outer surface of the grid element (10e, 10f) is configured as a section of a circular ring or of an oval ring and the inner surface as part of a circle or oval. • the outer surface is of a first colour and • the inner surface of the grid element (10, 10a, 10b, 10c, 10e, 10f) is of no colour or of a second colour which in terms of its brightness, its hue and/or its saturation is different from the first colour of the outer surface,
A light-emitting device comprising an activator and a light output adapted to emit light of a wavelength useful for curing a dental material, the device being adapted to operate the light output in a first or a second operating mode dependent on the presence of a second user input within a monitoring time period after a first user input, characterised in that the presence of a second user input within the monitoring time period activates the light output in the first operating mode, and the absence of a second user input within the monitoring time period activates the light output in the second operating mode, wherein in the first operating mode the light output is activated for a first operating time period and in the second operating mode the light output is activated for a second operating time period, and wherein the first operating time period is longer than the second operating time period.
A carbon based electrode with a large geometrical surface area (having a length of at least 20 cm and a width of at least 20 cm) comprising a frame of an electrically conductive material with several cut-outs with a surface area, which cut-outs are separated from each other by portions of the conductive material, wherein carbon based sub-electrodes dimensioned so as to a least cover the surface area of the cut-outs are positioned in the cut-outs and conductively connected to at least part of each of the portions of the conductive material adjacent to the carbon based sub-electrodes.
An electronic assembly comprising: an integrated circuit chip; a substrate comprising a plurality of electrical bonding pads; a plurality of electrical interconnects between the substrate and the integrated circuit chip; an electronics material disposed about the interconnects and between the integrated circuit chip and the substrate, the electronics material comprising: a cured matrix material comprising an oligomer or polymer derived from one or more of a methylene malonate monomer, a methylene beta ketoester monomer, and a methylene beta diketone monomer; and a filler material; and wherein each of the plurality of electrical interconnects is respectively electrically bonded to one of the plurality of electrical bonding pads. an integrated circuit chip; a substrate comprising a plurality of electrical bonding pads; a plurality of electrical interconnects between the substrate and the integrated circuit chip; an electronics material disposed about the interconnects and between the integrated circuit chip and the substrate, the electronics material comprising: a cured matrix material comprising an oligomer or polymer derived from one or more of a methylene malonate monomer, a methylene beta ketoester monomer, and a methylene beta diketone monomer; and a filler material; and a cured matrix material comprising an oligomer or polymer derived from one or more of a methylene malonate monomer, a methylene beta ketoester monomer, and a methylene beta diketone monomer; and a filler material; and wherein each of the plurality of electrical interconnects is respectively electrically bonded to one of the plurality of electrical bonding pads.
A printing form precursor comprising: (a) a photopolymerizable layer comprising a first binder, a monomer, and a photoinitiator, wherein said photopolymerizable layer is supported by a support layer; (b) an infrared ablation layer that is ablatable by infrared radiation and opaque to non-infrared actinic radiation, the infrared ablation layer comprising: (i) at least one infrared absorbing material; (ii) a radiation opaque material, wherein (i) and (ii) can be the same or different; and (iii) at least one second binder; wherein said infrared ablation layer is thermally embossed with a microcell pattern on the side facing the photopolymerizable layer; and (c) a coversheet. (a) a photopolymerizable layer comprising a first binder, a monomer, and a photoinitiator, wherein said photopolymerizable layer is supported by a support layer; (b) an infrared ablation layer that is ablatable by infrared radiation and opaque to non-infrared actinic radiation, the infrared ablation layer comprising: (i) at least one infrared absorbing material; (ii) a radiation opaque material, wherein (i) and (ii) can be the same or different; and (iii) at least one second binder; wherein said infrared ablation layer is thermally embossed with a microcell pattern on the side facing the photopolymerizable layer; and (i) at least one infrared absorbing material; (ii) a radiation opaque material, wherein (i) and (ii) can be the same or different; and (iii) at least one second binder; (c) a coversheet.
Control and display module for a motor vehicle, comprising a screen, a capacitive touchpad on top of said screen and a frame surrounding said capacitive touchpad and of which a border overlaps a peripheral edge of said capacitive touchpad while delimiting a cavity between said capacitive touchpad and said frame, characterized in that the control and display module comprises a glass plate adhesively bonded to said capacitive touchpad, filling said cavity in order to compensate at least partially for the difference in level between the capacitive touchpad and the upper surface of the frame.
Baby bottle device comprising - a container having a container volume to contain milk, and - a teat for attachment to the container and having a teat volume and at least one first valve for allowing air to flow from the outside of the teat into the teat volume, characterized in that the baby bottle device further comprises: - a valve unit arranged outside the teat volume for allowing air to flow into the container volume without coming into contact with milk inside the teat volume, wherein the valve unit comprises a second valve (210, 220, 230), which has a lower cracking pressure than the first valve. - a container having a container volume to contain milk, and - a teat for attachment to the container and having a teat volume and at least one first valve for allowing air to flow from the outside of the teat into the teat volume, - a valve unit arranged outside the teat volume for allowing air to flow into the container volume without coming into contact with milk inside the teat volume,
Film stretching plant with a furnace consisting of several treatment zones respectively comprising a ventilation unit, to which furnace a film is suppliable via a film inlet region, wherein the film is thermally treatable zone-wise in the treatment zones, and treatment fluid flows over the film on its upper surface and its lower surface in the treatment zones, characterized in that a) the treatment fluid is circulatable in the respective treatment zone by its respective ventilation unit for the thermal treatment of the film, and a portion of the treatment fluid is conveyed from the respective treatment zone to the process-technically following treatment zone, b) the portion of the treatment fluid that is conveyed from the treatment zone into the following treatment zone is conveyed decoupled from the passage region of the film in the treatment zones, and c) the respective treatment zone is equipped with a heat exchanger, by means of which the portion of the treatment fluid conveyed to it is adaptable to the temperature that is process-technically required in this treatment zone for the thermal treatment of the film. a) the treatment fluid is circulatable in the respective treatment zone by its respective ventilation unit for the thermal treatment of the film, and a portion of the treatment fluid is conveyed from the respective treatment zone to the process-technically following treatment zone, b) the portion of the treatment fluid that is conveyed from the treatment zone into the following treatment zone is conveyed decoupled from the passage region of the film in the treatment zones, and c) the respective treatment zone is equipped with a heat exchanger, by means of which the portion of the treatment fluid conveyed to it is adaptable to the temperature that is process-technically required in this treatment zone for the thermal treatment of the film.
An electrochemical cell characterized in that it comprises • at least one positive electrode comprising a mixture of manganese oxide, a carbonaceous material and at least one binding agent additive as a positive electrode material, physically separated from • at least one negative electrode which comprises an aluminium alloy as a negative electrode material; wherein said positive and negative electrodes are electrically connected by a neutral pH electrolyte, and wherein said negative electrode material is covered by a porous graphene surface. • at least one positive electrode comprising a mixture of manganese oxide, a carbonaceous material and at least one binding agent additive as a positive electrode material, physically separated from • at least one negative electrode which comprises an aluminium alloy as a negative electrode material;
An optical part manufacturing method comprising: a deformation step of providing a molding material and a transfer body having a transfer element (102, 142) including an optical element forming part used to form an optical element in the molding material, and projection forming parts used to form projections in positions different from a position where the optical element is formed in the molding material, and deforming the molding material by making a print of the profile of the transfer element; a hardening step of hardening at least a deformed area of the molding material; and a detaching step of detaching the molding material and the transfer body from each other, wherein a transfer step of transferring the profile of the transfer element to the molding material is repeated a plurality of times to manufacture an optical part; and wherein, in the deformation step, projections of a first optical part come in contact with a surface of a second optical part. a deformation step of providing a molding material and a transfer body having a transfer element (102, 142) including an optical element forming part used to form an optical element in the molding material, and projection forming parts used to form projections in positions different from a position where the optical element is formed in the molding material, and deforming the molding material by making a print of the profile of the transfer element; a hardening step of hardening at least a deformed area of the molding material; and a detaching step of detaching the molding material and the transfer body from each other,
Ear canal device with a retainer strip, whereby the ear canal device has a distal part for extending into an car canal of a user of said car canal device and facing a tympanic membrane of the user and a proximal part extending towards the ear canal opening and where a wire is coupled to the proximal part, wherein the proximal part of the ear canal device further comprises an opening, and where said retaining strip has a first end thereof arranged to be fastened in the opening and a second end arranged to lie resiliently against the inside of a concha of the user for exerting a retaining force on the ear canal device, characterized in that the strip has a cross section which matches the opening and a widening knob formed at the first end of the strip and that the opening is through going and the strip is adapted to be inserted into the opening, drawn through the opening and pulled tight such that the knob is seated in a recess arranged around said opening.
Arrangement with a cookware, e.g. with a cooking vessel, a frying pan, a griddle plate or other geometry, which is suitable for cooking, roasting or keeping warm and preparing food, which consists of a magnetisable material and which has a spacer to the cooktop, wherein the number of 3 spacers is selected, characterized in that a recess in the cookware tray is carried out so that another material which is softer than the material of the cookware tray and plastically deformable within limits, in this way is firmly embedded or pressed into the recess, so that the other Material is mechanically firmly fixed with the cookware underside by interlocking geometry, for example in the form of a fillet in the bottom of the pot, thus forming the distance to the cooktop, wherein the spacer consists of a up to 400°C temperature-resistant PBI plastic material.
A powdered composition comprising core-shell particles, the shell of which contains particles of at least one hydrophobized metal oxide powder, and the liquid core of which contains, based on the weight of the core, from 20.0 wt.% to 100.0 wt.%, in particular from 50.0 wt.% to 100.0 wt.%, of at least glycerol, characterized in that it additionally contains at least one cationic, amphoteric or anionic setting polymer.
A method of protecting a fuel level sensor in a fuel tank assembly during transportation, said fuel tank assembly comprising a fuel tank and a fuel level sensor of the type defined for measuring the level of a fuel in the fuel tank; the sensor comprising a wiper and at least one resistive area (15, 16); the method comprising: application before the fuel level sensor is assembled to the fuel tank of a temporary barrier layer of material to damp movement between the wiper and the at least one resistive area (15, 16); characterized in that: the temporary barrier layer is formed of a material and is applied in a thickness such that it will dissolve when submerged in the fuel on a first filling of the fuel tank. application before the fuel level sensor is assembled to the fuel tank of a temporary barrier layer of material to damp movement between the wiper and the at least one resistive area (15, 16); characterized in that: the temporary barrier layer is formed of a material and is applied in a thickness such that it will dissolve when submerged in the fuel on a first filling of the fuel tank.
System comprising at least two counter-rotating propellers (3, 7) independent one another, in which: - the main propeller is installed on a rotation axle and is directly connected to an interface flange of a thermal primary engine, being actuated by said thermal primary engine in order to allow the rotation of said main propeller in an autonomous way; - the secondary propeller is actuated by a secondary electric motor through a pair of front and rear tapered roller bearings placed along the rotation axle of said secondary propeller in order to allow the rotation of said secondary propeller in an autonomous way independent of said rotation of the main propeller wherein said thermal primary engine and said secondary electric motor are arranged parallel one each other, and wherein the system also includes a traction belt able to transmit the motion to said secondary propeller. - the main propeller is installed on a rotation axle and is directly connected to an interface flange of a thermal primary engine, being actuated by said thermal primary engine in order to allow the rotation of said main propeller in an autonomous way; - the secondary propeller is actuated by a secondary electric motor through a pair of front and rear tapered roller bearings placed along the rotation axle of said secondary propeller in order to allow the rotation of said secondary propeller in an autonomous way independent of said rotation of the main propeller wherein said thermal primary engine and said secondary electric motor are arranged parallel one each other, and wherein the system also includes a traction belt able to transmit the motion to said secondary propeller.
A method performed by a cellular Internet of Things, CIoT, user equipment, UE, for transmission of data in a communication network comprising a radio access network, RAN, and a core network, CN, the method comprising: sending, to an Access and Mobility Management Function, AMF, a request to establish a small-data user-plane, SDUP, data session; receiving a response indicating that the requested SDUP data session is established, wherein the response comprises: an identifier associated with a user-plane function, UPF, within the CN, that supports the established SDUP data session; and an SDUP security configuration for communication between the UE and the CN during the established SDUP data session; and subsequently communicating user data, associated with the established SDUP data session, with the UPF via a serving node in the RAN. sending, to an Access and Mobility Management Function, AMF, a request to establish a small-data user-plane, SDUP, data session; receiving a response indicating that the requested SDUP data session is established, wherein the response comprises: an identifier associated with a user-plane function, UPF, within the CN, that supports the established SDUP data session; and an SDUP security configuration for communication between the UE and the CN during the established SDUP data session; and an identifier associated with a user-plane function, UPF, within the CN, that supports the established SDUP data session; and an SDUP security configuration for communication between the UE and the CN during the established SDUP data session; and subsequently communicating user data, associated with the established SDUP data session, with the UPF via a serving node in the RAN.
Device for creating functional 3D models consisting of a casing of the device which houses an extruder and a drive mechanism, as well as display units and control units, all interconnected, wherein the casing of the device is provided with a mechanism for inserting and fastening individual attachments on its front side, characterised in that, each attachment is provided with a chip for transmitting information to a connector located on the casing of the device.
A capacitance variation detection circuit, configured to detect a capacitance variation of a detection capacitor (Ctp), wherein one terminal of the detection capacitor (Ctp) is connected to a reference ground and the other terminal of the detection capacitor (Ctp) is connected to a first power source (Vch); wherein the detection circuit comprises: an operational amplifier, a denoising capacitor, an integrating capacitor and a plurality of switches, wherein the plurality of switches comprises a first switch, a second switch, a third switch, a fourth switch, a fifth switch and a sixth switch; wherein a positive input terminal of the operational amplifier is connected to a second power source (Vcm), and a negative input terminal of the operational amplifier is connected to the other terminal of the detection capacitor (Ctp) via the first switch; wherein one terminal of the denoising capacitor is connected to the other terminal of the detection capacitor (Ctp) via the second switch and is connected to the reference ground via the third switch, and the other terminal of the denoising capacitor is connected to the first power source (Vch) via the fourth switch and is connected to the reference ground via the fifth switch; and wherein two terminals of the integrating capacitor are connected via the sixth switch, and two terminals of the integrating capacitor are connected between the negative input terminal of the operational amplifier and an output terminal of the operational amplifier. an operational amplifier, a denoising capacitor, an integrating capacitor and a plurality of switches, wherein the plurality of switches comprises a first switch, a second switch, a third switch, a fourth switch, a fifth switch and a sixth switch; wherein a positive input terminal of the operational amplifier is connected to a second power source (Vcm), and a negative input terminal of the operational amplifier is connected to the other terminal of the detection capacitor (Ctp) via the first switch; wherein one terminal of the denoising capacitor is connected to the other terminal of the detection capacitor (Ctp) via the second switch and is connected to the reference ground via the third switch, and the other terminal of the denoising capacitor is connected to the first power source (Vch) via the fourth switch and is connected to the reference ground via the fifth switch; and wherein two terminals of the integrating capacitor are connected via the sixth switch, and two terminals of the integrating capacitor are connected between the negative input terminal of the operational amplifier and an output terminal of the operational amplifier.