mhurhangee/patent-ind-claim-en huggingface dataset:
A packaging system for filling and sealing with a stopper at least one medicine container having a fill opening , the packaging system comprising: a container tray having a container cell for receiving and stabilizing the medicine container ; and a stopper holder with a stopper cell , the stopper cell forming a closed body with a distal opening , an interior space , a proximal inner surface opposite the distal opening , and a proximal outer surface , the stopper cell configured for releasably securing the stopper , the stopper cell being adapted to release the stopper into the fill opening of the medicine container when a compressive force is exerted on the proximal outer surface of the stopper cell ; characterized in that the stopper cell comprises a flexible material, and the proximal outer surface of the stopper cell flexes inwardly when the compressive force is exerted thereon, and the proximal inner surface flexes toward the stopper and exerts a compressive force on the stopper to urge the stopper from the stopper cell and into the fill opening of the medicine container . a container tray having a container cell for receiving and stabilizing the medicine container ; and a stopper holder with a stopper cell , the stopper cell forming a closed body with a distal opening , an interior space , a proximal inner surface opposite the distal opening , and a proximal outer surface , the stopper cell configured for releasably securing the stopper , the stopper cell being adapted to release the stopper into the fill opening of the medicine container when a compressive force is exerted on the proximal outer surface of the stopper cell ; characterized in that the stopper cell comprises a flexible material, and the proximal outer surface of the stopper cell flexes inwardly when the compressive force is exerted thereon, and the proximal inner surface flexes toward the stopper and exerts a compressive force on the stopper to urge the stopper from the stopper cell and into the fill opening of the medicine container .
Bottle comprising: • a receptacle , • an element for sealing said receptacle , said receptacle being sealed by said sealing element , • a security label , comprising a first set of at least one optical authentication element comprising an identifier, the security label being securely fastened to at least one among the receptacle and the sealing element , and • a covering element taking the form of a sleeve , at least partially covering the security label , and at least partially at least one among: the receptacle and the element for sealing said receptacle , in which the covering element , • is securely fastened at least to the sealing element , • is at least partially transparent, • is placed so that the security label is able to be observed by transparency therethrough characterized in that the covering element comprises a set of at least one marking element, said marking element of the covering element comprising at least one among: • a predetermined pattern, for example a generic pattern, preferably produced before said sleeve is fitted, • a laser marking or inkjet marking or even a marking produced by thermal-transfer printing, which is either unique or batch-produced, and preferably produced when the sleeve is fitted, • a digital watermark, • a pre-scored or pre-perforated zone taking the form, for example, of continuous perforations in a predetermined direction, and • a set of elements inducing optical deformation when observed in transmission, for example bubbles or concave or convex lenses. • a receptacle , • an element for sealing said receptacle , said receptacle being sealed by said sealing element , • a security label , comprising a first set of at least one optical authentication element comprising an identifier, the security label being securely fastened to at least one among the receptacle and the sealing element , and • a covering element taking the form of a sleeve , at least partially covering the security label , and at least partially at least one among: the receptacle and the element for sealing said receptacle , in which the covering element , • is securely fastened at least to the sealing element , • is at least partially transparent, • is placed so that the security label is able to be observed by transparency therethrough • a predetermined pattern, for example a generic pattern, preferably produced before said sleeve is fitted, • a laser marking or inkjet marking or even a marking produced by thermal-transfer printing, which is either unique or batch-produced, and preferably produced when the sleeve is fitted, • a digital watermark, • a pre-scored or pre-perforated zone taking the form, for example, of continuous perforations in a predetermined direction, and • a set of elements inducing optical deformation when observed in transmission, for example bubbles or concave or convex lenses.
Caster with controllable locking comprising: • at least one wheel , • a wheel case , • means for mounting said wheel in rotation with respect to the wheel case on a shaft defining an axis of rotation , and • means for controllably locking said wheel to control the locking of the wheel with respect to the wheel case , characterised in that the controllable locking means of the wheel are constituted by: • a plurality of radial notches made in said wheel , • a finger capable of introducing in at least one notch of the plurality, • at least one first magnet with two poles of opposite signs (N/+, S/-), • means for securing said finger with said first magnet , substantially on one of the two poles of this first magnet, it all forming a magnet/finger assembly (En), • means for mounting said magnet/finger assembly (En) in translation with respect to said wheel case in a direction substantially parallel to said axis of rotation , such that, in a first position (P1) if said assembly (En), the finger is outside of the notches and that, in a second position (P2) of said assembly (En), the finger is inserted at least partially in at least one of the notches , • a second magnet and a third magnet , • a support , • means for mounting the second magnet and the third magnet head-to-tail in said support such that, on one same face of said support, two poles of opposite signs are presented, and • means for moving said support in a plane substantially perpendicular to said axis of rotation so as to bring either of the second and third magnets facing the first magnet . • at least one wheel , • a wheel case , • means for mounting said wheel in rotation with respect to the wheel case on a shaft defining an axis of rotation , and • means for controllably locking said wheel to control the locking of the wheel with respect to the wheel case , • a plurality of radial notches made in said wheel , • a finger capable of introducing in at least one notch of the plurality, • at least one first magnet with two poles of opposite signs (N/+, S/-), • means for securing said finger with said first magnet , substantially on one of the two poles of this first magnet, it all forming a magnet/finger assembly (En), • means for mounting said magnet/finger assembly (En) in translation with respect to said wheel case in a direction substantially parallel to said axis of rotation , such that, in a first position (P1) if said assembly (En), the finger is outside of the notches and that, in a second position (P2) of said assembly (En), the finger is inserted at least partially in at least one of the notches , • a second magnet and a third magnet , • a support , • means for mounting the second magnet and the third magnet head-to-tail in said support such that, on one same face of said support, two poles of opposite signs are presented, and • means for moving said support in a plane substantially perpendicular to said axis of rotation so as to bring either of the second and third magnets facing the first magnet .
Spark plug , comprising a housing , an insulator arranged in the housing , a centre electrode arranged in the insulator , and an earth electrode arranged on the housing , wherein the earth electrode and the centre electrode are arranged in relation to one another in such a way that the earth electrode and the centre electrode form a spark gap, and wherein the earth electrode has a core and a sheath surrounding the core , wherein the core consists of a material that has a higher thermal conductivity than the material of the sheath , and wherein a cross-sectional area of the earth electrode is not greater than 2.76 mm 2 , wherein the sheath has a wall thickness c of not greater than 0.4 mm in a first region of the earth electrode , wherein the first region forms a region of the earth electrode which is facing away from the combustion space and in which the core has a constant cross-sectional area, wherein the earth electrode has a second region , in which the cross-sectional area of the core reduces continuously, wherein the earth electrode has a third region , into which the core does not reach and which is arranged at the end of the earth electrode facing away from the housing, wherein the earth electrode is bent, so that it is formed as a roof electrode, side electrode or bow electrode, characterized in that the second region is formed within a bent portion of the earth electrode between the first region and the third region along the longitudinal extent of the earth electrode .
A brain stimulation device comprising: an electrode unit constituted by two electromagnets and configured to move back and forth to a head of a user to fix the electrodes onto the head of the user; an auxiliary pressing unit configured to move back and forth to the head of the user to fix the electrode unit onto the head of the user; and a support unit having an inner side on which the electrode unit and the auxiliary pressing unit are disposed and which surrounds the head of the user, characterized in that the magnetic property of the electrode unit is adapted to be changed to an N/N mode, an N/S mode, an S/N mode, and an S/S mode, wherein, in the case of the N/N mode or the S/S mode, the magnitude of the magnetic flux output from the electrode unit is enhanced, such that the magnetic flux is configured to stimulate a deep place of the head, and in the case of the N/S mode or the S/N mode, the magnetic flux output from the N pole of the electrode unit is immediately input into the S pole located next to the N pole, such that the magnetic flux is configured to stimulate a shallow place of the head, wherein the auxiliary pressing unit is located between the electrodes of the electrode unit , and wherein the stimulation period of each electrode is within a range of 1.0 to 120 minutes, and wherein the stimulus frequency of each electrode is within a range of 0.1 to 3,000 Hz, and wherein the magnitude of the magnetic flux of each electrode is within a range of 0.1 to 100 mT. an electrode unit constituted by two electromagnets and configured to move back and forth to a head of a user to fix the electrodes onto the head of the user; an auxiliary pressing unit configured to move back and forth to the head of the user to fix the electrode unit onto the head of the user; and a support unit having an inner side on which the electrode unit and the auxiliary pressing unit are disposed and which surrounds the head of the user, characterized in that the magnetic property of the electrode unit is adapted to be changed to an N/N mode, an N/S mode, an S/N mode, and an S/S mode, wherein, in the case of the N/N mode or the S/S mode, the magnitude of the magnetic flux output from the electrode unit is enhanced, such that the magnetic flux is configured to stimulate a deep place of the head, and in the case of the N/S mode or the S/N mode, the magnetic flux output from the N pole of the electrode unit is immediately input into the S pole located next to the N pole, such that the magnetic flux is configured to stimulate a shallow place of the head, wherein the auxiliary pressing unit is located between the electrodes of the electrode unit , and wherein the stimulation period of each electrode is within a range of 1.0 to 120 minutes, and wherein the stimulus frequency of each electrode is within a range of 0.1 to 3,000 Hz, and wherein the magnitude of the magnetic flux of each electrode is within a range of 0.1 to 100 mT.
An optical branching device (1; 1') suitable for branching optical fibers extracted through an access window cut in a sheath of an optical cable , said optical branching device (1; 1') comprising: - a central channel (24; 24') configured to house a portion of said optical cable ; - at least one lateral channel (25, 26; 25', 26') which radiates from said central channel (25, 26; 25', 26'), which diverges by an acute angle from said central channel (24; 24'), and which is configured to house at least one of said optical fibers; and - at least one housing (27b; 27b') suitable for receiving a fixing member for fixing said device (1; 1') to said optical cable , wherein said housing (27b; 27b') does not project beyond the maximum extension of said at least one lateral channel (25, 26; 25', 26') in the longitudinal direction of said central channel (24; 24'). - a central channel (24; 24') configured to house a portion of said optical cable ; - at least one lateral channel (25, 26; 25', 26') which radiates from said central channel (25, 26; 25', 26'), which diverges by an acute angle from said central channel (24; 24'), and which is configured to house at least one of said optical fibers; and - at least one housing (27b; 27b') suitable for receiving a fixing member for fixing said device (1; 1') to said optical cable ,
A steel sheet for soft-nitriding treatment which has a chemical composition consisting of, in mass%, C: more than or equal to 0.02% and less than 0.07%, Si: less than or equal to 0.10%, Mn: 1.1 to 1.8%, P: less than or equal to 0.05%, S: less than or equal to 0.01%, Al: 0.10 to 0.45%, N: less than or equal to 0.01%, Ti: 0.01 to 0.10%, Nb: 0 to 0.1%, Mo: 0 to 0.1%, V: 0 to 0.1%, Cr: 0 to 0.2%, and the balance: Fe and impurities, satisfies the following formula (i), and has a total content of Ti, Nb, Mo, V, and Cr present as precipitates in the steel sheet of less than 0.03% in mass%, wherein the steel sheet for soft-nitriding treatment has a metal structure in which a ferrite area ratio is more than or equal to 80%, and a ferrite dislocation density at a position of 50 μm from a surface of the steel sheet is 1×10 14 to 1×10 16 m -2 , Mn + Al ≥ 1.5 where each chemical symbol included in the formula represents a content (mass%) of each element contained in the steel sheet. C: more than or equal to 0.02% and less than 0.07%, Si: less than or equal to 0.10%, Mn: 1.1 to 1.8%, P: less than or equal to 0.05%, S: less than or equal to 0.01%, Al: 0.10 to 0.45%, N: less than or equal to 0.01%, Ti: 0.01 to 0.10%, Nb: 0 to 0.1%, Mo: 0 to 0.1%, V: 0 to 0.1%, Cr: 0 to 0.2%, and the balance: Fe and impurities,
A vacuum adapter for a power tool with a bit holder extending from a front end of the power tool , which vacuum adapter is arranged to house said bit holder and to suck screws into alignment with a bit arranged inside said bit holder , and which vacuum adapter comprises: - a connection part for connecting the vacuum adapter to said front end of said power tool, such that the vacuum adapter covers said bit holder of said tool , - a vacuum connection for connecting the vacuum adapter to a negative pressure source, wherein the vacuum adapter comprises a cover part that is arranged to cover the bit holder and that may be separately disconnected from the power tool , leaving the connection part attached to the power tool, characterised in that the vacuum adapter comprises a quick coupling (23a,23b;43a,43b) for rapid disconnection of at least a part of said vacuum adapter in order to access said bit holder for exchanging bits, wherein the cover part is connected to the connection part via said quick coupling, wherein said quick coupling comprises a female part (23a;43a) and a male part (23b;43b), and wherein an O-ring (33; 43) adapted to keep the connection between the male and female parts fluid tight is arranged on the inside of said female part (23a; 43a). - a connection part for connecting the vacuum adapter to said front end of said power tool, such that the vacuum adapter covers said bit holder of said tool , - a vacuum connection for connecting the vacuum adapter to a negative pressure source,
A lead assembly for electrical stimulation comprising: a central lead member comprising a distal portion configured to extend along a longitudinal axis ; two or more side lead members disposed around the central lead member , each side lead member comprising a deploying portion extending at an angle away from the longitudinal axis, each deploying portion having a proximal portion and a distal portion, the distal portion being laterally spaced from the central lead member and extending more parallel to the longitudinal axis than the proximal portion, wherein each deploying portion of the side lead members extends along a constant-radius arc, particularly wherein the constant-radius arc is convex; and one or more electrodes attached to the distal portion of the deploying portion of each side lead member . a central lead member comprising a distal portion configured to extend along a longitudinal axis ; two or more side lead members disposed around the central lead member , each side lead member comprising a deploying portion extending at an angle away from the longitudinal axis, each deploying portion having a proximal portion and a distal portion, the distal portion being laterally spaced from the central lead member and extending more parallel to the longitudinal axis than the proximal portion, wherein each deploying portion of the side lead members extends along a constant-radius arc, particularly wherein the constant-radius arc is convex; and one or more electrodes attached to the distal portion of the deploying portion of each side lead member .
A time-of-flight depth camera comprising a VCSEL array , an optical arrangement , an evaluator and a light detector comprising at least one detector pixel , wherein the VCSEL array or the optical arrangement are arranged to provide different illumination patterns in a reference plane in a defined field-of-view of the time-of-flight depth camera , wherein the light detector is arranged to detect the different illumination patterns , wherein the evaluator is arranged to reconstruct a depth image of the field of view with a resolution of a predefined number of pixels P based on the detected different illumination patterns , wherein a number of the detected different illumination patterns N is at least 5% of the predefined number of pixels P, preferably at least 10% of the predefined number of pixels and most preferred at least 20% of the predefined number of pixels P, wherein the VCSEL array is an addressable VCSEL array, wherein the VCSEL array is arranged to provide different illumination patterns by addressing different VCSELs of the VCSEL array , characterised in that the optical arrangement comprises a replicating optical structure , wherein the replicating optical structure is arranged to replicate a light pattern provided by the VCSEL array across the illumination pattern such that the illumination pattern consists of two, three, four or more sub-illumination patterns, wherein the detector is arranged such that each detector pixel detects a corresponding sub-illumination pattern.
A method for monitoring at least one activity of a connected object , the method being implemented by a device for monitoring said connected object, the method comprising a first periodic measurement of at least one internal signal (SM, SC) representative of said at least one activity of the connected object , a first non-cryptographic calculation of at least one activity parameter (PA) representative of said at least one activity from said at least one measured internal signal, a comparison between each activity parameter (DTC, CCC) calculated at the end of the first calculation and a predetermined range of instructions for the corresponding parameter (DTR, CCR), and a triggering of at least one safety action if at least one calculated activity parameter (DTC, CCC) at the end of the first calculation is outside said range of instructions (DTR, CCR), wherein the range of instructions of each activity parameter (DTR, CCR) is intended to be updated in a learning phase (PA) also implemented by said monitoring device, and wherein the learning phase (PA) includes a second periodic measurement, under authorisation of a user of the connected object, of said at least one internal signal (SM, SC) for a duration which is predetermined or configurable by the user, a second non-cryptographic calculation of said at least one activity parameter (PA) from said at least one internal signal measured by said second periodic measurement during said duration, and an update of the range of setpoints of the corresponding activity parameter (DTR, CCR) from each calculated activity parameter (NDTC, NCCC) at the end of the second calculation. a first periodic measurement of at least one internal signal (SM, SC) representative of said at least one activity of the connected object , a first non-cryptographic calculation of at least one activity parameter (PA) representative of said at least one activity from said at least one measured internal signal, a comparison between each activity parameter (DTC, CCC) calculated at the end of the first calculation and a predetermined range of instructions for the corresponding parameter (DTR, CCR), and a triggering of at least one safety action if at least one calculated activity parameter (DTC, CCC) at the end of the first calculation is outside said range of instructions (DTR, CCR), wherein the range of instructions of each activity parameter (DTR, CCR) is intended to be updated in a learning phase (PA) also implemented by said monitoring device, and wherein the learning phase (PA) includes a second periodic measurement, under authorisation of a user of the connected object, of said at least one internal signal (SM, SC) for a duration which is predetermined or configurable by the user, a second non-cryptographic calculation of said at least one activity parameter (PA) from said at least one internal signal measured by said second periodic measurement during said duration, and an update of the range of setpoints of the corresponding activity parameter (DTR, CCR) from each calculated activity parameter (NDTC, NCCC) at the end of the second calculation.
A system, comprising: electrodes on at least one lead configured to be operationally positioned for use in modulating neural tissue, the neural tissue including dorsal horn tissue or nerve root tissue; a neural modulation generator configured to use at least some of the electrodes to generate a modulation field, characterised by the neural modulation generator being configured to use a programmed modulation parameter set to promote uniformity of the modulation field for a distance across the dorsal horn tissue corresponding to a length of an electrode span adjacent to the dorsal horn tissue, the electrode span including two or more of the electrodes on the at least one lead; and a controller configured to control the neural modulation generator to generate said modulation field in pulse trains of at least two pulses. electrodes on at least one lead configured to be operationally positioned for use in modulating neural tissue, the neural tissue including dorsal horn tissue or nerve root tissue; a neural modulation generator configured to use at least some of the electrodes to generate a modulation field, characterised by the neural modulation generator being configured to use a programmed modulation parameter set to promote uniformity of the modulation field for a distance across the dorsal horn tissue corresponding to a length of an electrode span adjacent to the dorsal horn tissue, the electrode span including two or more of the electrodes on the at least one lead; and a controller configured to control the neural modulation generator to generate said modulation field in pulse trains of at least two pulses.