mhurhangee/ep-ind-claims huggingface dataset:
A machine for the ink-jet printing of three-dimensional objects, comprising: - a plurality of spindles individually configured to carry and drive an object to be printed in rotation around a pre-set rotational axis of the spindle, and - a first support and displacement system configured to move the spindles in succession along a pre-set loop path, stopping them one after the other in a plurality of operating stations, wherein said operating stations comprise: - at least one input station wherein the spindle receives an object to be printed - a plurality of printing stations wherein the object is ink-jet printed, and - at least one output station wherein the printed object is removed from the spindle, wherein each printing station comprises: - a printing unit configured for ink-jet printing the object carried by the spindle found in the printing station, and - a second support and displacement system configured to vary the relative position of said printing unit with respect to the spindle found in the printing station, said printing unit comprising at least - one or more ink-jet printer heads, characterised in that said printing unit further comprises at least: - one ink tank, - one ink pump configured to transfer the ink from the tank to the printer heads, - one vacuum pump configured to create depression in the printer heads, and - one electronic apparatus (225, 230) for controlling and commanding the ink pump, the vacuum pump and the printer heads. - a plurality of spindles individually configured to carry and drive an object to be printed in rotation around a pre-set rotational axis of the spindle, and - a first support and displacement system configured to move the spindles in succession along a pre-set loop path, stopping them one after the other in a plurality of operating stations, - at least one input station wherein the spindle receives an object to be printed - a plurality of printing stations wherein the object is ink-jet printed, and - at least one output station wherein the printed object is removed from the spindle, - a printing unit configured for ink-jet printing the object carried by the spindle found in the printing station, and - a second support and displacement system configured to vary the relative position of said printing unit with respect to the spindle found in the printing station, said printing unit comprising at least - one or more ink-jet printer heads, characterised in that said printing unit further comprises at least: - one ink tank, - one ink pump configured to transfer the ink from the tank to the printer heads, - one vacuum pump configured to create depression in the printer heads, and - one electronic apparatus (225, 230) for controlling and commanding the ink pump, the vacuum pump and the printer heads.
A method for the production of an alkylene oxide polymer comprising making an alkylene oxide undergo a polymerization reaction in the presence of a zinc catalyst in an inert hydrocarbon solvent to produce an alkylene oxide polymer, wherein the method comprises: the step of reacting an organozinc compound with a monohydric alcohol in an amount of 12 equivalents or less relative to the organozinc compound and an aliphatic polyhydric alcohol in an amount of 0.2 to 1.1 equivalents relative to the organozinc compound to prepare a reaction liquid, the step of distilling the reaction liquid under normal pressure at a temperature of 100°C or lower to prepare a zinc catalyst in which the amount of the monohydric alcohol is adjusted to 0.01 equivalents or less relative to the organozinc compound, the step of further heat treating the zinc catalyst under a heat treatment temperature of from 100°C to 200°C after performing the distillation, and the step of making the alkylene oxide undergo a polymerization reaction using the zinc catalyst in which the amount of the monohydric alcohol has been adjusted to 0.01 equivalents or less relative to the organozinc compound. the step of reacting an organozinc compound with a monohydric alcohol in an amount of 12 equivalents or less relative to the organozinc compound and an aliphatic polyhydric alcohol in an amount of 0.2 to 1.1 equivalents relative to the organozinc compound to prepare a reaction liquid, the step of distilling the reaction liquid under normal pressure at a temperature of 100°C or lower to prepare a zinc catalyst in which the amount of the monohydric alcohol is adjusted to 0.01 equivalents or less relative to the organozinc compound, the step of further heat treating the zinc catalyst under a heat treatment temperature of from 100°C to 200°C after performing the distillation, and the step of making the alkylene oxide undergo a polymerization reaction using the zinc catalyst in which the amount of the monohydric alcohol has been adjusted to 0.01 equivalents or less relative to the organozinc compound.
An oral pharmaceutical composition comprising compound (3S,4S)-6-(4-methyl-1-pyrimidin-2-ylmethyl-pyrrolidin-3-yl)-3-(tetrahydro-pyran-4-yl)-7H-imidazo[1,5-a]pyrazin-8-one and one or more pharmaceutically acceptable carriers, diluents, or excipients, wherein the compound is present in the composition from 0.01 mg to 1000 mg per dose.
A medical system, comprising a. a housing; b. a preassembled functional module received in the housing, the preassembled functional module comprising b1. an analytical sensor for detecting at least one analyte in a body fluid of a user; b2. an electronics unit electrically connected to the analytical sensor; b3. an insertion component for inserting the analytical sensor into a body tissue of the user; and b4. at least one sterility cap at least partially surrounding the insertion component; c. at least one removable protective cap connected to the housing, covering the preassembled functional module, wherein the sterility cap is distinct from the protective cap; wherein the sterility cap is configured for being pulled off from the insertion component when the protective cap is pulled off from the housing, wherein the sterility cap is connected to the protective cap at a distal end of the sterility cap by one or more of a form-fit connection, a force-fit connection, or a connection by material engagement. a. a housing; b. a preassembled functional module received in the housing, the preassembled functional module comprising b1. an analytical sensor for detecting at least one analyte in a body fluid of a user; b2. an electronics unit electrically connected to the analytical sensor; b3. an insertion component for inserting the analytical sensor into a body tissue of the user; and b4. at least one sterility cap at least partially surrounding the insertion component; b1. an analytical sensor for detecting at least one analyte in a body fluid of a user; b2. an electronics unit electrically connected to the analytical sensor; b3. an insertion component for inserting the analytical sensor into a body tissue of the user; and b4. at least one sterility cap at least partially surrounding the insertion component; c. at least one removable protective cap connected to the housing, covering the preassembled functional module, wherein the sterility cap is distinct from the protective cap;
A method of deploying and inflating an airbag comprising: providing a combustion chamber; providing an amount of electrically operated propellant within the combustion chamber, said propellant comprising an ionic-based oxidizer such that the propellant has a self-sustaining threshold pressure of at least 1,000 psi at which the ignited propellant cannot be extinguished; coupling an airbag to the combustion chamber; igniting the electrically operated propellant in the chamber by applying an electrical input to the electrically operated propellant; and controlling the electrical input to the electrically operated propellant to vary the rate of combustion of the ignited electrically operated propellant, hence the pressure in the chamber at levels less than the self-sustaining threshold pressure, to control a pressure profile in the airbag and a total pressure impulse delivered to the airbag. providing a combustion chamber; providing an amount of electrically operated propellant within the combustion chamber, said propellant comprising an ionic-based oxidizer such that the propellant has a self-sustaining threshold pressure of at least 1,000 psi at which the ignited propellant cannot be extinguished; coupling an airbag to the combustion chamber; igniting the electrically operated propellant in the chamber by applying an electrical input to the electrically operated propellant; and controlling the electrical input to the electrically operated propellant to vary the rate of combustion of the ignited electrically operated propellant, hence the pressure in the chamber at levels less than the self-sustaining threshold pressure, to control a pressure profile in the airbag and a total pressure impulse delivered to the airbag.
A light-emitting device comprising: a light-emitting module (110; 110b) comprising a plurality of sets (130a-130e) of light-emitting elements; a power module adapted to selectively convey electrical power to the plurality of sets during respective non-overlapping time intervals for powering the respective sets; and a control module, characterized in that the control module is adapted to control the power module to convey power to the plurality of sets during respective non-overlapping time intervals until power has been conveyed to each set of the plurality of sets at least once, and that the power module is configured such that it has an upper capacity limit with respect to an electrical power that can be conveyed to the plurality of sets, the upper capacity limit corresponding to an electrical power requirement of a largest set of the plurality of sets at a given moment. a light-emitting module (110; 110b) comprising a plurality of sets (130a-130e) of light-emitting elements; a power module adapted to selectively convey electrical power to the plurality of sets during respective non-overlapping time intervals for powering the respective sets; and a control module,
Connecting arrangement comprising a housing body having a connecting section, at least one housing contact wedge (7.1, 7.2, 7.3, 7.4) with a contact face which is oriented at a wedge angle to a mounting direction being formed on each of the two opposite sides (5, 6) of the said connecting section, and having a contact section, wherein a clamping face which is formed on the contact section is provided at a distance from the contact face of the at least one housing contact wedge (7.1, 7.2, 7.3, 7.4), and comprising a connecting body which can be attached to the housing body in the region of the connecting section and on which at least one connecting contact wedge (20.1, 20.2, 20.3, 20.4) is provided, which connecting contact wedge has a contact face which is oriented at the same wedge angle to the mounting direction, wherein, in a mounted state, the contact faces (8, 22) of the housing contact wedge (7.1, 7.2, 7.3, 7.4) and of the connecting contact wedge (20.1, 20.2, 20.3, 20.4) are in contact with one another, characterized in that at least one first connecting contact wedge (20.1, 20.2, 20.3, 20.4) and one second connecting contact wedge (21.1, 21.2, 21.3, 21.4) are provided on the connecting body, wherein a first contact face is provided on the first connecting contact wedge (20.1, 20.2, 20.3, 20.4) and a second contact face is provided on the second connecting contact wedge (21.1, 21.2, 21.3, 21.4), wherein the first contact face and the second contact face enclose a wedge angle of the same magnitude with the mounting direction, and wherein the wedge angle which is formed between the first contact face and the mounting direction is provided in a mirror-image with respect to the mounting direction in relation to the second wedge angle which is formed between the second contact face and the mounting direction in such a way that, in a first mounting position, the connecting body is placed against the contact face of the housing contact wedge (7.1, 7.2, 7.3, 7.4) by way of the first contact face, and that, in a second mounting position which is assumed by virtue of rotation of the connecting body through 180° about a mounting rotation axis, the connecting body is placed against the contact face of the housing contact wedge (7.1, 7.2, 7.3, 7.4) by way of the second contact face.
A cardio-pulmonary health monitoring apparatus comprising: a contactless sensor unit comprising a contactless motion sensor configured to generate one or more movement signals representing bodily movement of a patient during a monitoring session, a processor and a memory wherein the memory stores program instructions configured to cause the processor to carry out a method of processing the one or more movement signals, the method comprising selecting one or more sections of the one or more movement signals, being sections during which the patient was asleep and not performing gross bodily movements, extracting one or more sleep disordered breathing, SDB, features from said sections of the one or more movement signals, the SDB features being indicative of severity of sleep-disordered breathing by the patient during the monitoring session,wherein the extracting comprises detecting the SDB events in said sections and calculating the one or more SDB features from the detected SDB events. a contactless sensor unit comprising a contactless motion sensor configured to generate one or more movement signals representing bodily movement of a patient during a monitoring session, a processor and a memory wherein the memory stores program instructions configured to cause the processor to carry out a method of processing the one or more movement signals, the method comprising selecting one or more sections of the one or more movement signals, being sections during which the patient was asleep and not performing gross bodily movements, extracting one or more sleep disordered breathing, SDB, features from said sections of the one or more movement signals, the SDB features being indicative of severity of sleep-disordered breathing by the patient during the monitoring session,wherein the extracting comprises detecting the SDB events in said sections and calculating the one or more SDB features from the detected SDB events. selecting one or more sections of the one or more movement signals, being sections during which the patient was asleep and not performing gross bodily movements, extracting one or more sleep disordered breathing, SDB, features from said sections of the one or more movement signals, the SDB features being indicative of severity of sleep-disordered breathing by the patient during the monitoring session,wherein the extracting comprises detecting the SDB events in said sections and calculating the one or more SDB features from the detected SDB events.
An apparatus configured for supporting and transporting a substrate for depositing print tracks, comprising: a substrate to be supported and transported; a support plate having a support surface suitable for supporting a substrate positioned on the support surface; a first fluid-dynamic circuit configured to generate a first suction condition in one or more first regions of the support surface of the support plate to maintain the substrate adherent to the support surface; and a second fluid-dynamic circuit configured to generate a second suction condition in one or more second regions of the support surface of the support plate, wherein the apparatus is characterized in that: the substrate has one or more holes; the one or more second regions are positioned to be in fluid communication with the one or more holes in the substrate when the substrate is resting on the support surface, and the second suction condition is controllable for allowing controlled filling of the one or more holes in the substrate with a conductive material. a substrate to be supported and transported; a support plate having a support surface suitable for supporting a substrate positioned on the support surface; a first fluid-dynamic circuit configured to generate a first suction condition in one or more first regions of the support surface of the support plate to maintain the substrate adherent to the support surface; and a second fluid-dynamic circuit configured to generate a second suction condition in one or more second regions of the support surface of the support plate, wherein the apparatus is characterized in that: the substrate has one or more holes; the one or more second regions are positioned to be in fluid communication with the one or more holes in the substrate when the substrate is resting on the support surface, and the second suction condition is controllable for allowing controlled filling of the one or more holes in the substrate with a conductive material. the substrate has one or more holes; the one or more second regions are positioned to be in fluid communication with the one or more holes in the substrate when the substrate is resting on the support surface, and the second suction condition is controllable for allowing controlled filling of the one or more holes in the substrate with a conductive material.
A method of producing an antimicrobial composition, the method comprising the step of splitting a refined lauric oil to obtain a composition comprising 90% or more, by weight, free fatty acids, characterized in that the refined oil is an oil that has been brought into contact with activated carbon.
A station STA, wherein the STA belongs to a basic service set BSS, the BSS comprises an access point AP and at least one STA, both the AP and the STA participate in channel contention, and the STA comprises: a sensing module, configured to sense a channel; and a contention module, configured to obtain the channel by means of contention by sending a channel contention frame when the sensing module senses that the channel is in an idle state; a transferring module, configured to transfer a permission to control the channel to the AP, and subsequently the channel is centrally controlled and scheduled by the AP in the BSS. a sensing module, configured to sense a channel; and a contention module, configured to obtain the channel by means of contention by sending a channel contention frame when the sensing module senses that the channel is in an idle state; a transferring module, configured to transfer a permission to control the channel to the AP, and subsequently the channel is centrally controlled and scheduled by the AP in the BSS.
A light barrier arrangement for detecting objects in a monitoring area, having a transmitting unit which has at least one transmitter emitting light beams, having a receiving unit which has at least one receiver receiving light beams, and having an evaluation unit in which an object detection signal is generated as a function of received signals from the receiver, a transmitter arrangement being integrated in the transmitting unit and/or in the receiving unit, which emits visible pilot light beams in a predetermined direction relative to beam axes of the transmitter or receiver and which forms a means for aligning the transmitter unit relative to the receiver unit, characterised in that said or each transmitter arrangement has a transmitter element emitting pilot light beams and an optical element, the transmitting element being arranged in the focus of the optical element, and in that an optical arrangement is assigned to the transmitter or transmitters on the one hand and to the receiver or receivers on the other hand, the optical element of said at least one transmitter arrangement being a component of an optical arrangement.
A needle clamp for a sewing machine, comprising a body at least partially made of a thermally conductive material and having retaining means for constraining at least one needle, characterized in that it comprises a thermoelectric cooling device directly or indirectly constrained to a portion of said body.
A method for execution by a portable fitness monitoring device comprising: launching a portable fitness monitoring application on the portable fitness monitoring device; receiving position data from a satellite positioning system receiver of the portable fitness monitoring device, wherein the position data is a plurality of position points; determining that the position data indicates that the portable fitness monitoring device is moving; beginning execution of a workout routine in response to the determination that the portable fitness monitoring device is moving, wherein the determination that the portable fitness monitoring device is moving is based on a determination that the distance between two consecutive position points exceeds a predetermined threshold; determining that the position data indicates that the portable fitness monitoring device is not moving, wherein the determination that the portable fitness monitoring device is not moving is based on a determination that the distance between two consecutive position points is less than a predetermined threshold; and ending execution of a workout routine in response to the determination that the portable fitness monitoring device is not moving. launching a portable fitness monitoring application on the portable fitness monitoring device; receiving position data from a satellite positioning system receiver of the portable fitness monitoring device, wherein the position data is a plurality of position points; determining that the position data indicates that the portable fitness monitoring device is moving; beginning execution of a workout routine in response to the determination that the portable fitness monitoring device is moving, wherein the determination that the portable fitness monitoring device is moving is based on a determination that the distance between two consecutive position points exceeds a predetermined threshold; determining that the position data indicates that the portable fitness monitoring device is not moving, wherein the determination that the portable fitness monitoring device is not moving is based on a determination that the distance between two consecutive position points is less than a predetermined threshold; and ending execution of a workout routine in response to the determination that the portable fitness monitoring device is not moving.