mhurhangee/ep-ind-claims huggingface dataset:
Method for conducting a transaction on a set of products available in a geographical area equipped with a plurality of near-field communication readers each associated with a product, the near-field communication readers being connected to an information processing device suitable for implementing the interface with a centralized platform associated with the geographical area, the method comprising: - reading a radio badge by one of the near-field communication readers in order to determine an identifier contained in the badge and identifying a customer associated with the badge over a period longer than the transaction; - processing, by the information processing device, the information received by the near-field communication reader to filter out double readings due to improper handling of the radio badge, on the basis of a delay between two readings of the same badge by the same near-field communication reader; - transmitting, by the information processing device, a message containing at least one identifier of the product associated with the near-field communication reader and the identifier of the badge to the centralized platform, - storing a virtual basket associating with the badge identifier, the product identifier(s) contained in one or more messages received from the information processing device, and - displaying the virtual basket via a human-machine interface on a mobile telecommunication terminal - paying for the products identified in the virtual basket by means of the telecommunication terminal. - reading a radio badge by one of the near-field communication readers in order to determine an identifier contained in the badge and identifying a customer associated with the badge over a period longer than the transaction; - processing, by the information processing device, the information received by the near-field communication reader to filter out double readings due to improper handling of the radio badge, on the basis of a delay between two readings of the same badge by the same near-field communication reader; - transmitting, by the information processing device, a message containing at least one identifier of the product associated with the near-field communication reader and the identifier of the badge to the centralized platform, - storing a virtual basket associating with the badge identifier, the product identifier(s) contained in one or more messages received from the information processing device, and - displaying the virtual basket via a human-machine interface on a mobile telecommunication terminal - paying for the products identified in the virtual basket by means of the telecommunication terminal.
A functional compound-comprising product, characterized in that said product comprises a mass provided with a functional compound that comprises at least one flavour, a solvent comprising ethanol, wherein the solvent is capable of dissolving the functional compound, a viscosity regulator comprising a silicate, and a carrier matrix having a film former comprising ethyl cellulose, the said product further comprising a base material comprising paper or textile, wherein the mass has been printed or dosed on the base material and forms a permeable film thereon, and wherein the film former in the matrix has a content of less than 2% by weight.
A method for assembling an air rinsing system for containers comprising: providing an air source for use in rinsing the containers; connecting a manifold to the air source, the manifold comprising a manifold inlet, an ionization unit, and a manifold outlet for directing air from the air source at the containers to aid in removing debris from the containers; placing the ionization unit within the manifold such that when air is supplied to the manifold during operation the air is ionized within the manifold and during operation air is ionized before exiting the manifold outlet; and providing a vacuum system for the removal of particles from the containers, the vacuum system comprising: a vacuum pan extending under a container flow path and underneath the air manifold; and two elbow-shaped manifolds each having suction inlets located on either side of the manifold for vacuuming unwanted particles from the system. providing an air source for use in rinsing the containers; connecting a manifold to the air source, the manifold comprising a manifold inlet, an ionization unit, and a manifold outlet for directing air from the air source at the containers to aid in removing debris from the containers; placing the ionization unit within the manifold such that when air is supplied to the manifold during operation the air is ionized within the manifold and during operation air is ionized before exiting the manifold outlet; and providing a vacuum system for the removal of particles from the containers, the vacuum system comprising: a vacuum pan extending under a container flow path and underneath the air manifold; and two elbow-shaped manifolds each having suction inlets located on either side of the manifold for vacuuming unwanted particles from the system. a vacuum pan extending under a container flow path and underneath the air manifold; and two elbow-shaped manifolds each having suction inlets located on either side of the manifold for vacuuming unwanted particles from the system.
A plug-in module having a first side face, comprising: a first elastic strip and a first pull tab provided on a same end of the first side face; the first elastic strip has an elongated shape, and is provided with at least one first limiting lug on a first surface of the first elastic strip opposite to the first side face, wherein an end of the first elastic strip located in close proximity to the first pull tab is referred to as an opposite end, and another end of the first elastic strip is referred to as a distal end, and the distal end is affixed to the first side face, and wherein the opposite end is provided with an elastic strip retraction head, and the elastic strip retraction head is arranged in a position corresponding to the first pull tab, the plug-in module further comprises a second side face in contact with the end of the first side face, wherein the first pull tab comprises a first handle and two first connecting arms, an end of the two first connecting arms is arranged on the second side face, another end of the two first connecting arms is connected to the first handle, characterized in that the elastic strip retraction head is arranged between the two first connecting arms and located in the gap formed by the two first connecting arms and extends below the first handle, so that when the elastic strip retraction head is pulled upward, it can pass through the gap and hook up with the first handle. a first elastic strip and a first pull tab provided on a same end of the first side face; the first elastic strip has an elongated shape, and is provided with at least one first limiting lug on a first surface of the first elastic strip opposite to the first side face, wherein an end of the first elastic strip located in close proximity to the first pull tab is referred to as an opposite end, and another end of the first elastic strip is referred to as a distal end, and the distal end is affixed to the first side face, and wherein the opposite end is provided with an elastic strip retraction head, and the elastic strip retraction head is arranged in a position corresponding to the first pull tab, the plug-in module further comprises a second side face in contact with the end of the first side face, wherein the first pull tab comprises a first handle and two first connecting arms, an end of the two first connecting arms is arranged on the second side face, another end of the two first connecting arms is connected to the first handle, characterized in that the elastic strip retraction head is arranged between the two first connecting arms and located in the gap formed by the two first connecting arms and extends below the first handle, so that when the elastic strip retraction head is pulled upward, it can pass through the gap and hook up with the first handle.
Thermogravitational microcolumn comprising a chamber where the fluid to be analysed is disposed, which is disposed in a substantially vertical position and a cover on each side of the chamber, both covers withstanding different temperatures, so that a temperature gradient is present between both faces of the chamber, characterised in that it is adapted for determining the thermal diffusion coefficient of biological fluids and synthetic and biological colloidal fluids and comprises an aspect ratio that enables it to fall within the limits of the FJO theory in order to make possible the calculation of the thermal diffusion coefficient of biological fluids and synthetic and biological colloidal fluids, a base plate disposed between both covers and comprising the chamber, a transparent means which is disposed on each side of the chamber and which is optically transparent and thermally conductive, the chamber being delimited by the base plate and the transparent means, and at least one viewing hole in each cover so that said chamber can be viewed from the outside through both transparent means.
A magnetic field sensor for detecting motion of an object, comprising: a magnet configured to generate a magnetic field and having a first surface adjacent to the object and a second surface distal from the object, wherein the first surface has a centerline axis substantially parallel to and disposed on the first surface, wherein the centerline axis is substantially diagonal with respect to a motion axis, which is substantially parallel to and disposed on the first surface, wherein features of the object pass parallel to the motion axis when the object is in motion; and a semiconductor substrate disposed between the magnet and the object, the semiconductor substrate supporting a plurality of spaced magnetoresistance elements (132, 134, 136) disposed along a single sensing element axis substantially parallel to the centerline axis of the magnet and configured to generate a respective plurality of magnetic field signals in response to the motion of the object with respect to the magnetic field, wherein a line substantially perpendicular to the first surface of the magnet intersects both the centerline axis and the sensing element axis, and wherein each of the plurality of magnetoresistance elements (132, 134, 136) has a maximum response axis orthogonal to the centerline axis. a magnet configured to generate a magnetic field and having a first surface adjacent to the object and a second surface distal from the object, wherein the first surface has a centerline axis substantially parallel to and disposed on the first surface, wherein the centerline axis is substantially diagonal with respect to a motion axis, which is substantially parallel to and disposed on the first surface, wherein features of the object pass parallel to the motion axis when the object is in motion; and a semiconductor substrate disposed between the magnet and the object, the semiconductor substrate supporting a plurality of spaced magnetoresistance elements (132, 134, 136) disposed along a single sensing element axis substantially parallel to the centerline axis of the magnet and configured to generate a respective plurality of magnetic field signals in response to the motion of the object with respect to the magnetic field, wherein a line substantially perpendicular to the first surface of the magnet intersects both the centerline axis and the sensing element axis, and wherein each of the plurality of magnetoresistance elements (132, 134, 136) has a maximum response axis orthogonal to the centerline axis.
A composition, in which collagen and fibrin are mixed, for use as a tissue sealant, wherein the composition is prepared by mixing fibrinogen and aprotinin to prepare a first material; mixing thrombin, calcium chloride, and collagen to prepare a second material; and mixing the first material and the second material with each other to prepare a third material, and wherein the fibrinogen has a concentration of 65-130 mg/mL, the aprotinin has a concentration of 1,000-3,000 KIU/mL, the thrombin has a concentration of 40-600 U/ml, the calcium chloride has a concentration of 4-140 mmol/L, and the collagen has a concentration of 10-30 mg/mL.
A multi-layer assembly, comprising: a first rigid layer, wherein the first rigid layer is made of metal; a second rigid layer, wherein the second rigid layer is made of metal; a viscoelastic adhesive layer being in contact with the first and second rigid layers (12, 16) such that the viscoelastic adhesive layer bonds the first and second rigid layers (12, 16) together so that the multi-layer assembly is a laminate construction; and a retention feature being a raised embossment formed in at least one of the first and second rigid layers (12, 16) and surrounding a fastening hole that extends through the entire multi-layer assembly, wherein the retention feature includes a side wall that extends away from the viscoelastic adhesive layer such that a space is formed between the first and second rigid layers (12, 16) and the space is devoid of adhesive from the viscoelastic adhesive layer. a first rigid layer, wherein the first rigid layer is made of metal; a second rigid layer, wherein the second rigid layer is made of metal; a viscoelastic adhesive layer being in contact with the first and second rigid layers (12, 16) such that the viscoelastic adhesive layer bonds the first and second rigid layers (12, 16) together so that the multi-layer assembly is a laminate construction; and a retention feature being a raised embossment formed in at least one of the first and second rigid layers (12, 16) and surrounding a fastening hole that extends through the entire multi-layer assembly, wherein the retention feature includes a side wall that extends away from the viscoelastic adhesive layer such that a space is formed between the first and second rigid layers (12, 16) and the space is devoid of adhesive from the viscoelastic adhesive layer.
Orthotopic artificial bladder endoprosthesis characterized in that it comprises two portions (2,3) connected to each other; each portion (2,3) comprising a respective resorbable cap (4,5) made of a PGA fiber fabric and a respective frame (6,7), obtained by means of PGA/PLA copolymer and comprising a plurality of arms (10,11) arranged as a star and defining a dome-like profile, associated with said cap (4,5); said portions (2,3) being connected together in order to define a closed enclosure.
Seeder for use with a fiber laser amplifier, the seeder being adapted for generating a shaped pulse having an increased Stimulated Brillouin Scattering i.e. SBS threshold, said shaped pulse being suitable for generating high energy laser pulses, said seeder comprising: an amplified spontaneous emission i.e. ASE source, being adapted for generating a broadband continuous wave i.e. CW broadband pulse having a continuous spectral distribution comprising a plurality of frequencies, each one of said plurality of frequencies carrying a fraction of the energy of said broadband CW broadband pulse, the broadband pulse having a controlled rising pulse shape being tailored to compensate for gain saturation without reaching the SBS threshold; a spectral filter, coupled with said ASE source, said spectral filter being adapted for narrowing a bandwidth of said broadband CW broadband pulse while maintaining said continuous spectral distribution within said narrowed bandwidth; and an arbitrary waveform generator i.e. AWG modulator, coupled with said spectral filter, being adapted for shaping said narrowed bandwidth broadband CW broadband pulse, said shaped pulse having pulse shape. an amplified spontaneous emission i.e. ASE source, being adapted for generating a broadband continuous wave i.e. CW broadband pulse having a continuous spectral distribution comprising a plurality of frequencies, each one of said plurality of frequencies carrying a fraction of the energy of said broadband CW broadband pulse, the broadband pulse having a controlled rising pulse shape being tailored to compensate for gain saturation without reaching the SBS threshold; a spectral filter, coupled with said ASE source, said spectral filter being adapted for narrowing a bandwidth of said broadband CW broadband pulse while maintaining said continuous spectral distribution within said narrowed bandwidth; and an arbitrary waveform generator i.e. AWG modulator, coupled with said spectral filter, being adapted for shaping said narrowed bandwidth broadband CW broadband pulse, said shaped pulse having pulse shape.
A semiconductive polyethylene composition comprising a. a very low density polyolefin, having a density of less than or equal to 910 kg/m 3, b. an amount of at least 20 wt% of carbon black, wherein said polyolefin comprises: i. a first polyolefin fraction with density in the range of 885 to 920 kg/m 3 and MFR 2 in the range of 15 to 50 g/10min, ii. a second polyolefin fraction with density in the range of 840 to 880 kg/m 3 and MFR 2 in the range of 0.5 to 10 g/10min, and the amounts of the first and second fraction of polyolefin are present in an amount of at least 10 wt% of the polyolefin. a. a very low density polyolefin, having a density of less than or equal to 910 kg/m 3, b. an amount of at least 20 wt% of carbon black, i. a first polyolefin fraction with density in the range of 885 to 920 kg/m 3 and MFR 2 in the range of 15 to 50 g/10min, ii. a second polyolefin fraction with density in the range of 840 to 880 kg/m 3 and MFR 2 in the range of 0.5 to 10 g/10min,
Lighting assembly (1; 101; 201) comprising a housing with an interior and a light emitting region, and with at least one lighting device; wherein the housing has a housing part with ceiling and wall portions (4a-e) and an open end and the housing also has an element coupled to the housing part in the region of the open end of said housing part, this element being provided with the light emitting region which is smaller than the open end of the housing part; wherein the lighting device is provided for an arrangement inside the interior for emitting light to the exterior via the light emitting region during operation; wherein the lighting device can be coupled to the housing and can be freely positioned at least inside a region of the interior, with the lighting device coupled by magnetic force to the housing part such that the lighting device is slidingly displaceable and rotatable on the housing part; and wherein the lighting assembly (1; 101; 201) has a cable for supplying the lighting device, the cable being magnetically coupled to a component of the housing and by this means being held and/or guided inside the interior.
A method for device identification performed by a terminal configured to manage smart devices, comprising: obtaining network class identification of one or more network devices each of which establishes a network connection, wherein the network class identification indicates a network coverage position of the network connection established by each network device; generating smart device position identification according to the network class identification; and displaying on the terminal the smart device position identification in a smart device list; wherein the generating of the smart device position identification according to the network class identification comprises: determining one or more smart devices within a coverage range of the network coverage position according to the network class identification; and generating the smart device position identification according to the network class identification and identities of the one or more smart devices. obtaining network class identification of one or more network devices each of which establishes a network connection, wherein the network class identification indicates a network coverage position of the network connection established by each network device; generating smart device position identification according to the network class identification; and displaying on the terminal the smart device position identification in a smart device list; wherein the generating of the smart device position identification according to the network class identification comprises: determining one or more smart devices within a coverage range of the network coverage position according to the network class identification; and generating the smart device position identification according to the network class identification and identities of the one or more smart devices. determining one or more smart devices within a coverage range of the network coverage position according to the network class identification; and generating the smart device position identification according to the network class identification and identities of the one or more smart devices.
A microwave oven comprising: a door movable between an open state and a closed state; a microwave generator for generating microwaves; and a generator power supply unit comprising the following components ordered from upstream to downstream: a first converter for converting a power input to a power output; a first energy reserve electrically coupled to the first converter for receiving the power output; a second converter electrically coupled to the first energy reserve for converting the power output to a low voltage power output; and a second energy reserve electrically coupled to the second converter for receiving the low voltage power output and supplying the low voltage power output to the microwave generator; characterized by: a detection circuit configured to detect an input voltage and disable the second converter based on the door being in the open state, wherein disabling the second converter triggers the second energy reserve to discharge, and wherein the time necessary to discharge the second energy reserve is free of influence from the first energy reserve. a door movable between an open state and a closed state; a microwave generator for generating microwaves; and a generator power supply unit comprising the following components ordered from upstream to downstream: a first converter for converting a power input to a power output; a first energy reserve electrically coupled to the first converter for receiving the power output; a second converter electrically coupled to the first energy reserve for converting the power output to a low voltage power output; and a second energy reserve electrically coupled to the second converter for receiving the low voltage power output and supplying the low voltage power output to the microwave generator; characterized by: a first converter for converting a power input to a power output; a first energy reserve electrically coupled to the first converter for receiving the power output; a second converter electrically coupled to the first energy reserve for converting the power output to a low voltage power output; and a second energy reserve electrically coupled to the second converter for receiving the low voltage power output and supplying the low voltage power output to the microwave generator; characterized by: a detection circuit configured to detect an input voltage and disable the second converter based on the door being in the open state, wherein disabling the second converter triggers the second energy reserve to discharge, and wherein the time necessary to discharge the second energy reserve is free of influence from the first energy reserve.