mhurhangee/ep-ind-claims huggingface dataset:
Method for encoding an initial 2D barcode, comprising steps of: - generating or providing said initial 2D barcode, said initial 2D barcode comprising a set of individual binary modules and having a shape comprising a set of vertices; characterized in that it further comprises steps of: - replicating the initial 2D barcode to create as many copies (C1, C2, C3, C4) as the shape of the initial 2D barcode comprises vertices; - assembling the copies (C1, C2, C3, C4) of the initial 2D barcode in the form of a mosaic around a first reference mark; - positioning a first graphical extraction window, which acts as an optical shutter, such that the opening of said first graphical window simultaneously covers at least the centre of said first reference mark and at least one respective vertex of each copy (C1, C2, C3, C4) of the initial 2D barcode; and - sizing the first graphical window such that the sum of the surface area of the copies (C1, C2, C3, C4) of the initial 2D barcode that are covered by the opening of the first graphical window is greater than or equal to the surface area of the initial 2D barcode, said first graphical window having a predetermined shape, which may be any shape. - generating or providing said initial 2D barcode, said initial 2D barcode comprising a set of individual binary modules and having a shape comprising a set of vertices; - replicating the initial 2D barcode to create as many copies (C1, C2, C3, C4) as the shape of the initial 2D barcode comprises vertices; - assembling the copies (C1, C2, C3, C4) of the initial 2D barcode in the form of a mosaic around a first reference mark; - positioning a first graphical extraction window, which acts as an optical shutter, such that the opening of said first graphical window simultaneously covers at least the centre of said first reference mark and at least one respective vertex of each copy (C1, C2, C3, C4) of the initial 2D barcode; and - sizing the first graphical window such that the sum of the surface area of the copies (C1, C2, C3, C4) of the initial 2D barcode that are covered by the opening of the first graphical window is greater than or equal to the surface area of the initial 2D barcode, said first graphical window having a predetermined shape, which may be any shape.
An illumination device (100, 150, 200, 300, 400, 500, 550,600, 650, 800, 850) comprising: a light source (102, 202, 302, 322, 502, 522, 602, 652, 802, 852) that emits light having a first wavelength range along a first beam path; a wavelength converting element (112, 112', 512, 612, 812, 856) in the first beam path, the wavelength converting element being physically separated from the light source, the wavelength converting element converting the light having a first wavelength range into light having a second wavelength range along a second beam path; a color separation element (110, 210, 310, 510, 610, 810, 854) disposed between the light source and the wavelength converting element, the color separation element being configured to prevent substantially all of the light having the second wavelength range from being incident on the light source; characterized in that at least one of a radiance enhancement film (118, 318, 520, 622, 814) and a polarization recovery component (120, 320, 522, 624, 858) coupled to receive the light emitted from the wavelength converting element, and in that the wavelength converting element is mounted on a reflective substrate or a reflective mirror. a light source (102, 202, 302, 322, 502, 522, 602, 652, 802, 852) that emits light having a first wavelength range along a first beam path; a wavelength converting element (112, 112', 512, 612, 812, 856) in the first beam path, the wavelength converting element being physically separated from the light source, the wavelength converting element converting the light having a first wavelength range into light having a second wavelength range along a second beam path; a color separation element (110, 210, 310, 510, 610, 810, 854) disposed between the light source and the wavelength converting element, the color separation element being configured to prevent substantially all of the light having the second wavelength range from being incident on the light source; characterized in that at least one of a radiance enhancement film (118, 318, 520, 622, 814) and a polarization recovery component (120, 320, 522, 624, 858) coupled to receive the light emitted from the wavelength converting element, and in that the wavelength converting element is mounted on a reflective substrate or a reflective mirror.
Endoscopic surgical instrument with at least one endoscopy shaft, with at least one suction and/or rinse unit, with at least one securing element that is configured, in a coupled state, to secure the at least one endoscopy shaft on the at least one suction and/or rinse unit, and with at least one fixation unit that is configured for a captive fixation of the at least one securing element on the at least one suction and/or rinse unit, characterised in that the at least one fixation unit comprises at least one cover element which, in an assembled state, encompasses the at least one securing element at least partly, wherein the at least one cover element comprises at least one operational recess for an operation of the at least one securing element.
Machine for the automatic preparation of intravenous medication, comprising: - a starting products area further comprising at least one receptacle with base products; - a transfer tools area further comprising at least one transfer tool; - a prepared products area further comprising at least one container to house the prepared medication; and - a first robot designated to actuate on receptacles; - a second robot designated to actuate on the transfer tools; wherein the robots (7, 12) are articulated arms adapted to transport receptacles, transfer tools and/or containers between the areas characterized in that the machine further comprises: - first holding means on the first robot; - second holding means on the second robot; the second holding means further comprising a plunger actuator. - a starting products area further comprising at least one receptacle with base products; - a transfer tools area further comprising at least one transfer tool; - a prepared products area further comprising at least one container to house the prepared medication; and - a first robot designated to actuate on receptacles; - a second robot designated to actuate on the transfer tools; - first holding means on the first robot; - second holding means on the second robot;
A mobile terminal operable to determine, in accordance with a reception status of a radio signal from a preset radio transmission source other than a base station, whether or not the mobile terminal should stop measuring of the status of the link between the mobile terminal and the base station and/or execution of reporting of a measurement result of the link status to the base station, wherein the link status comprises a state of a link such as a link error or a link failure; wherein the reception status of the radio signal from the preset radio transmission source renders it possible to determine whether the mobile terminal is located indoors or outdoors based on the reception status of the radio signal; and wherein the reception status of a radio signal from the preset radio transmission source includes at least one out of: a time needed in receiving the radio signal and obtaining preset information from the signal, and a reception quality or strength of the radio signal.
A system for producing a nonwoven fabric on the basis of glass fibres, for insulating and/or isolating purposes, and/or as a reinforcing or stiffening part, consisting of - at least one fibre opening device for dispersing and the oriented or non-oriented alignment of the glass fibres and for forming a fibrous web, a first unit for the reorientation of the oriented or non-oriented fibres of the fibrous web into fibres which assume a random position, wherein the volume of the fibrous web is increased/the density of the fibrous web is decreased so that numerous air pockets are present in the fibrous web, an elevating belt which conveys the fibrous web from the fibre opening device at a velocity to the first unit, - a second unit on which a homogeneous single-layer nonwoven fabric having fibres in a random position is formed from the fibrous web of the first unit on a laying belt, the weight per unit area of said nonwoven fabric being a multiple of the weight per unit area of the fibrous web, - wherein the forward running velocity of the laying belt can be reduced for increasing the weight per unit area of the homogeneous nonwoven fabric in comparison with the speed of the elevating belt in such a way - that the second unit builds up the homogeneous single-layer nonwoven fabric with an increase of up to 50 times of the pile weight from the fibres situated in random position by means of negative pressure on the laying belt. - at least one fibre opening device for dispersing and the oriented or non-oriented alignment of the glass fibres and for forming a fibrous web, a first unit for the reorientation of the oriented or non-oriented fibres of the fibrous web into fibres which assume a random position, wherein the volume of the fibrous web is increased/the density of the fibrous web is decreased so that numerous air pockets are present in the fibrous web, an elevating belt which conveys the fibrous web from the fibre opening device at a velocity to the first unit, - a second unit on which a homogeneous single-layer nonwoven fabric having fibres in a random position is formed from the fibrous web of the first unit on a laying belt, the weight per unit area of said nonwoven fabric being a multiple of the weight per unit area of the fibrous web, - wherein the forward running velocity of the laying belt can be reduced for increasing the weight per unit area of the homogeneous nonwoven fabric in comparison with the speed of the elevating belt in such a way - that the second unit builds up the homogeneous single-layer nonwoven fabric with an increase of up to 50 times of the pile weight from the fibres situated in random position by means of negative pressure on the laying belt.
A wireless communication system for transferring a perception from an individual called a transmitter to an individual called a receiver, said system comprising: - a nano transmitter device, intended to be implanted in the nervous system of the transmitter, and a nano receiver device intended to be implanted in the nervous system of the receiver, - said nano transmitter device comprising: a nanosensor for intercepting an electrical signal carrying a nerve impulse (INFL), said nerve impulse being emitted by the transmitter when the latter is subjected to an external stimulus, a nanoprocessor for transforming said electrical signal intercepted by the nanosensor into a digital signal, a transmission/reception module for transmitting said digital signal to said nano receiver device and an electrical power supply, and - said nano receiver device comprising: a transmission/reception module for receiving said digital signal coming from said nano transmitter device, a nanoprocessor for decoding said digital signal and transforming it into an electrical signal corresponding to the nerve impulse (INFL) of the transmitter, a nanosensor capable of injecting said electrical signal corresponding to said nerve impulse into the nervous system of said receiver and an electrical power supply. - a nano transmitter device, intended to be implanted in the nervous system of the transmitter, and a nano receiver device intended to be implanted in the nervous system of the receiver, - said nano transmitter device comprising: a nanosensor for intercepting an electrical signal carrying a nerve impulse (INFL), said nerve impulse being emitted by the transmitter when the latter is subjected to an external stimulus, a nanoprocessor for transforming said electrical signal intercepted by the nanosensor into a digital signal, a transmission/reception module for transmitting said digital signal to said nano receiver device and an electrical power supply, and - said nano receiver device comprising: a transmission/reception module for receiving said digital signal coming from said nano transmitter device, a nanoprocessor for decoding said digital signal and transforming it into an electrical signal corresponding to the nerve impulse (INFL) of the transmitter, a nanosensor capable of injecting said electrical signal corresponding to said nerve impulse into the nervous system of said receiver and an electrical power supply.
An information processing apparatus comprising: first acquisition processing means for acquiring identification information from a communication terminal; second acquisition processing means for acquiring an attribute information of each of a plurality of communication terminals (52, 53); specifying processing means for searching the attribute information acquired by the second acquisition processing means and for specifying a communication terminal having the identification information acquired by the first acquisition processing means; and synchronization establishment processing means for establishing synchronization for wireless communication performed by using the communication terminal specified by the specifying processing means; wherein the first acquisition processing means is configured to acquire the identification information when the communication terminal comes within a first kind of wireless communication range of the information processing apparatus; wherein the first acquisition processing means is configured to acquire the identification information from a communication terminal via an electromagnetic wave, and characterised by: the synchronisation establishment processing means is configured to be activated to establish the synchronisation for wireless communication in response to the first acquisition processing means acquiring the identification information. first acquisition processing means for acquiring identification information from a communication terminal; second acquisition processing means for acquiring an attribute information of each of a plurality of communication terminals (52, 53); specifying processing means for searching the attribute information acquired by the second acquisition processing means and for specifying a communication terminal having the identification information acquired by the first acquisition processing means; and synchronization establishment processing means for establishing synchronization for wireless communication performed by using the communication terminal specified by the specifying processing means; wherein the first acquisition processing means is configured to acquire the identification information when the communication terminal comes within a first kind of wireless communication range of the information processing apparatus; wherein the first acquisition processing means is configured to acquire the identification information from a communication terminal via an electromagnetic wave, and characterised by: the synchronisation establishment processing means is configured to be activated to establish the synchronisation for wireless communication in response to the first acquisition processing means acquiring the identification information.
A gimbal body for connecting two sections of pipe to each other and accommodating movement of the pipe sections, the gimbal body comprising: a first end part for use in welding the gimbal body to a first pipe section; a first main body attached to the first end part; a second end part for use in welding the gimbal body to a second pipe section; and a second main body attached to the second end part; wherein: said first main body is attached to the second main body by one or more pivot mechanisms; the first end part is made of a first material; the first main body is made of a second material that is different from the first material; the second end part is made of the first material; and the second main body is made of the second material. a first end part for use in welding the gimbal body to a first pipe section; a first main body attached to the first end part; a second end part for use in welding the gimbal body to a second pipe section; and a second main body attached to the second end part; wherein: said first main body is attached to the second main body by one or more pivot mechanisms; the first end part is made of a first material; the first main body is made of a second material that is different from the first material; the second end part is made of the first material; and the second main body is made of the second material. said first main body is attached to the second main body by one or more pivot mechanisms; the first end part is made of a first material; the first main body is made of a second material that is different from the first material; the second end part is made of the first material; and the second main body is made of the second material.
A light emitting strip, comprising: an elongate body; at least one light source adapted to emit light into the elongate body; and a gap in the elongate body, which gap is arranged in front of the at least one light source, wherein the gap is adapted to omnidirectionally distribute, in a plane perpendicular to a longitudinal direction of the light emitting strip, light emitted by the at least one light source and, characterised in that said light emitting strip is having a first interface between the elongate body and the gap, which first interface is proximal to the at least one light source and dual arches-shaped, and a second interface between the elongate body and the gap, which second interface is distal to the at least one light source. an elongate body; at least one light source adapted to emit light into the elongate body; and a gap in the elongate body, which gap is arranged in front of the at least one light source, wherein the gap is adapted to omnidirectionally distribute, in a plane perpendicular to a longitudinal direction of the light emitting strip, light emitted by the at least one light source and, characterised in that said light emitting strip is having a first interface between the elongate body and the gap, which first interface is proximal to the at least one light source and dual arches-shaped, and a second interface between the elongate body and the gap, which second interface is distal to the at least one light source.
A process of preparing cyclic ethers comprises reacting under substantially anhydrous conditions at least one organic compound having at least one pair of hydroxyl groups separated by 4 or 5 carbon atoms with an organic carbonate in the presence of a strong base for a period sufficient to effect reaction of said compound to form a cyclic ether, wherein at least one of the hydroxyl groups of said at least one pair of hydroxyl groups is not a tertiary hydroxyl group and said at least one pair of hydroxyl groups is capable of being converted into an ether linkage under the reaction conditions.
An autoinjector comprising a body (1, 2), and a reservoir containing fluid and including a piston and a needle, such as a prefilled syringe, said autoinjector further comprising a piston rod that is suitable for co-operating with the piston of said reservoir, said piston rod being movable between a first rest position, a second pricking position, in which said piston rod has moved said reservoir relative to said body (1, 2) so as to perform pricking, and a third injection position in which said piston rod has moved the piston of the reservoir so as to inject the fluid through the needle, an actuator spring being provided so as to urge said piston rod firstly towards its pricking position and then towards its injection position, the autoinjector being characterized in that it further comprises a force-adjustment system (7, 8) that exerts a force (F1, F2) on said piston rod, said force opposing the force exerted by said actuator spring on said piston rod at the end of pricking so as to decrease the force exerted on said reservoir by said piston rod at the end of pricking, and said force adding to the force exerted by said actuator spring on said piston rod at the beginning of injection, so as to amplify the force exerted on said piston by said piston rod at the beginning of injection, said force-adjustment system (7, 8) comprising two pivot members that co-operate with said piston rod, said pivot members being connected together by two resilient elements.
Method for compensating variations in an attenuation of light of an optical filter of a light sensor system, wherein the variations in attenuation are caused by variations in the optical filter thickness from a nominal thickness and/or concentration of pigment or dye particles from a nominal concentration, the method comprising - illuminating a clear sensor and a color sensor (RS, GS, BS) of the light sensor system with a test light having a test spectrum, wherein - the color sensor (RS, GS, BS) comprises the optical filter and is designed to predominantly sense light with a wavelength within a pass band of the optical filter and to generate at least one color signal r, g, b; and - the test spectrum has components outside the pass band of the optical filter; - receiving, in particular in response to the illumination with the test light, a clear test signal generated by the clear sensor and a color test signal generated by the color sensor (RS, GS, BS); - determining a first transmission value T based on the clear test signal and on the color test signal; - calculating a compensation factor Kr, Kg, Kb to compensate the variations in the attenuation of light based on the first transmission value T and a nominal transmission value Tn of the optical filter; - compensating the variations in attenuation of light of the optical filter by generating at least one compensated color signal r_comp, g_comp, b_comp according to at least one respective formula of the formulae: r _ comp = Kr * r, g _ comp = Kg * g, b _ comp = Kb * b. - illuminating a clear sensor and a color sensor (RS, GS, BS) of the light sensor system with a test light having a test spectrum, wherein - the color sensor (RS, GS, BS) comprises the optical filter and is designed to predominantly sense light with a wavelength within a pass band of the optical filter and to generate at least one color signal r, g, b; and - the test spectrum has components outside the pass band of the optical filter; - the color sensor (RS, GS, BS) comprises the optical filter and is designed to predominantly sense light with a wavelength within a pass band of the optical filter and to generate at least one color signal r, g, b; and - the test spectrum has components outside the pass band of the optical filter; - receiving, in particular in response to the illumination with the test light, a clear test signal generated by the clear sensor and a color test signal generated by the color sensor (RS, GS, BS); - determining a first transmission value T based on the clear test signal and on the color test signal; - calculating a compensation factor Kr, Kg, Kb to compensate the variations in the attenuation of light based on the first transmission value T and a nominal transmission value Tn of the optical filter; - compensating the variations in attenuation of light of the optical filter by generating at least one compensated color signal r_comp, g_comp, b_comp according to at least one respective formula of the formulae: r _ comp = Kr * r, g _ comp = Kg * g, b _ comp = Kb * b.