mhurhangee/ep-ind-claims huggingface dataset:
A body piercing instrument cartridge, comprising: a main housing having a thumb grip section along a rear surface; a post holder supporting a post and slidably engaged with a post holder track within the main housing; and a jaw slidably engaged with the main housing with a jaw track, the jaw track parallel to the post holder track, and the jaw supporting a backing platform for piercing a body part with the post as the jaw and main housing are moved together along the jaw track, the jaw including a finger grip section disposed below and opposite the backing platform and opposite the thumb grip section of the main housing, characterized in that the jaw includes a stiffener disposed behind the finger grip section and the stiffener forms an additional track between the main housing and the jaw. a main housing having a thumb grip section along a rear surface; a post holder supporting a post and slidably engaged with a post holder track within the main housing; and a jaw slidably engaged with the main housing with a jaw track, the jaw track parallel to the post holder track, and the jaw supporting a backing platform for piercing a body part with the post as the jaw and main housing are moved together along the jaw track, the jaw including a finger grip section disposed below and opposite the backing platform and opposite the thumb grip section of the main housing, characterized in that the jaw includes a stiffener disposed behind the finger grip section and the stiffener forms an additional track between the main housing and the jaw.
A method for transmitting an enhanced physical downlink control channel, E-PDCCH, wherein the E-PDCCH comprises at least one E-PDCCH unit, and the method comprises: mapping the at least one E-PDCCH unit to a pre-determined position in at least one resource block pair; and transmitting the E-PDCCH on mapped time-frequency resources in the resource block pair, wherein: a size of resources of each resource block pair is greater than or equal to a size of resources occupied by two E-PDCCH units, and resources occupied by each E-PDCCH unit in a resource block pair comprise a part of resources of each resource block in the resource block pair; wherein when the E-PDCCH comprises multiple E-PDCCH units, the mapping the multiple E-PDCCH units comprises: mapping the multiple E-PDCCH units belonging to the same E-PDCCH to different resource block pairs. mapping the at least one E-PDCCH unit to a pre-determined position in at least one resource block pair; and transmitting the E-PDCCH on mapped time-frequency resources in the resource block pair, wherein: a size of resources of each resource block pair is greater than or equal to a size of resources occupied by two E-PDCCH units, and resources occupied by each E-PDCCH unit in a resource block pair comprise a part of resources of each resource block in the resource block pair; wherein when the E-PDCCH comprises multiple E-PDCCH units, the mapping the multiple E-PDCCH units comprises: mapping the multiple E-PDCCH units belonging to the same E-PDCCH to different resource block pairs. a size of resources of each resource block pair is greater than or equal to a size of resources occupied by two E-PDCCH units, and resources occupied by each E-PDCCH unit in a resource block pair comprise a part of resources of each resource block in the resource block pair; wherein when the E-PDCCH comprises multiple E-PDCCH units, the mapping the multiple E-PDCCH units comprises: mapping the multiple E-PDCCH units belonging to the same E-PDCCH to different resource block pairs. mapping the multiple E-PDCCH units belonging to the same E-PDCCH to different resource block pairs.
A method of controlling a voltage potential in a flow battery (20;120) during a mode transition to control corrosion, the method comprising: (a) transitioning a flow battery (20;120) to or from an inactive, shut-down mode with respect to an active, charge/discharge mode, the flow battery including at least one cell having a first electrode, a second electrode spaced apart from the first electrode, and an electrolyte separator layer arranged between the first electrode and the second electrode; and (b) limiting a voltage potential across the first electrode and the second electrode of the flow battery (20;120) during step (a) using a voltage-limiting device (50;150) arranged in an electric circuit that is electrically coupled with the first electrode and the second electrode; characterised in that the transitioning includes starting the flow battery (20;120) from the inactive, shut-down mode to the active, charge/discharge mode, and during the starting of the flow battery (20;120), feeding a positive liquid electrolyte and a negative liquid electrolyte to, respectively, the first electrode and the second electrode such that the positive liquid electrolyte and the negative liquid electrolyte are fed one at a time. (a) transitioning a flow battery (20;120) to or from an inactive, shut-down mode with respect to an active, charge/discharge mode, the flow battery including at least one cell having a first electrode, a second electrode spaced apart from the first electrode, and an electrolyte separator layer arranged between the first electrode and the second electrode; and (b) limiting a voltage potential across the first electrode and the second electrode of the flow battery (20;120) during step (a) using a voltage-limiting device (50;150) arranged in an electric circuit that is electrically coupled with the first electrode and the second electrode; characterised in that
Filtration unit intended to allow the leucodepletion of the blood or of a blood product, comprising an external pouch provided with at least one inlet orifice and with at least one outlet orifice, the pouch containing a porous element interposed between said orifices, said porous element comprising at least one leucodepletion medium that works by adsorbing and/or by filtering out the leucocytes, characterised in that said porous element further comprises at least one layer of nonwoven provided with a plurality of bumps, each of said bumps having a perforation passing through it in the heightwise direction to form a relief-perforated nonwoven layer.
A sterilization method for a water to be treated, the method comprising: sterilizing the water by applying a high voltage pulse to a pair of discharge electrodes, comprising a high voltage electrode whose lateral surface is covered with an insulator and whose exposed tip is flat and is either a) on the same plane as a tip part of the insulator, or b) is recessed from the tip part of the insulator, or c) wherein the inter-electrode distance is 1 to 20mm, and wherein a range of ratio of a tip part of the high voltage electrode projected from a tip part of the insulator covering the high voltage electrode with respect to the inter-electrode distance is within 0 to 0.1, and a ground electrode opposed to the high voltage electrode with an inter-electrode distance, in the water so that dielectric breakdown occurs and bubbles are generated in the water to cause a jet that is directed in a vertical, downward direction from the high voltage electrode to the ground electrode, characterized by further providing a dielectric cylinder between the insulator covering the high voltage electrode and the ground electrode for guiding a flow of the jet. sterilizing the water by applying a high voltage pulse to a pair of discharge electrodes, comprising a high voltage electrode whose lateral surface is covered with an insulator and whose exposed tip is flat and is either a) on the same plane as a tip part of the insulator, or b) is recessed from the tip part of the insulator, or c) wherein the inter-electrode distance is 1 to 20mm, and wherein a range of ratio of a tip part of the high voltage electrode projected from a tip part of the insulator covering the high voltage electrode with respect to the inter-electrode distance is within 0 to 0.1, a) on the same plane as a tip part of the insulator, or b) is recessed from the tip part of the insulator, or c) wherein the inter-electrode distance is 1 to 20mm, and wherein a range of ratio of a tip part of the high voltage electrode projected from a tip part of the insulator covering the high voltage electrode with respect to the inter-electrode distance is within 0 to 0.1, and a ground electrode opposed to the high voltage electrode with an inter-electrode distance, in the water so that dielectric breakdown occurs and bubbles are generated in the water to cause a jet that is directed in a vertical, downward direction from the high voltage electrode to the ground electrode, characterized by further providing a dielectric cylinder between the insulator covering the high voltage electrode and the ground electrode for guiding a flow of the jet.
A product, comprising: a first substrate that is at least partially transparent to visible light; a first conductive layer disposed over the first substrate, the first conductive layer comprising a surface resulting from subjecting the first conductive layer to laser ablation, wherein the surface includes artifacts arranged with a periodic structure, the periodic structure has a period in at least one direction of at least about 4,500 nm to at most about 850,000 nm, wherein the artifacts are arranged in rows extending in the process path direction of the laser ablation, wherein artifacts in a row are formed by overlap of laser spots in the process path direction, characterised in that the surface is an ablated surface and the artifacts have a peak-to-valley dimension substantially perpendicular to the major plane of the first substrate of less than about 25 nm. a first substrate that is at least partially transparent to visible light; a first conductive layer disposed over the first substrate, the first conductive layer comprising a surface resulting from subjecting the first conductive layer to laser ablation, wherein the surface includes artifacts arranged with a periodic structure, the periodic structure has a period in at least one direction of at least about 4,500 nm to at most about 850,000 nm, wherein the artifacts are arranged in rows extending in the process path direction of the laser ablation, wherein artifacts in a row are formed by overlap of laser spots in the process path direction, characterised in that the surface is an ablated surface and the artifacts have a peak-to-valley dimension substantially perpendicular to the major plane of the first substrate of less than about 25 nm.
A solid free flowing particulate laundry detergent composition comprising: (a) anionic detersive surfactant; (b) from 0wt% to 8wt% zeolite builder; (c) from 0wt% to 4wt% phosphate builder; (d) from 0wt% to 8wt% sodium carbonate; (e) from 0wt% to 8wt% sodium silicate; (f) from 4wt% to 20wt% organic acid; and (g) carboxymethyl cellulose, wherein the composition at 1wt% dilution in deionized water at 20°C, has an equilibrium pH in the range of from 6.5 to 9.0, wherein the composition comprises from 30wt% to 90wt% base detergent particle, wherein the base detergent particle comprising (by weight of the base detergent particle): (a) from 4wt% to 35wt% anionic detersive surfactant; (b) optionally, from 1wt% to 8wt% zeolite builder; (c) from 0wt% to 4wt% phosphate builder; (d) from 0wt% to 8wt% sodium carbonate; (e) from 0wt% to 8wt% sodium silicate; (f) from 1wt% to 10wt% organic acid; and (g) optionally, from 1wt% to 10wt% magnesium sulphate. (a) anionic detersive surfactant; (b) from 0wt% to 8wt% zeolite builder; (c) from 0wt% to 4wt% phosphate builder; (d) from 0wt% to 8wt% sodium carbonate; (e) from 0wt% to 8wt% sodium silicate; (f) from 4wt% to 20wt% organic acid; and (g) carboxymethyl cellulose, (a) from 4wt% to 35wt% anionic detersive surfactant; (b) optionally, from 1wt% to 8wt% zeolite builder; (c) from 0wt% to 4wt% phosphate builder; (d) from 0wt% to 8wt% sodium carbonate; (e) from 0wt% to 8wt% sodium silicate; (f) from 1wt% to 10wt% organic acid; and (g) optionally, from 1wt% to 10wt% magnesium sulphate.
Apparatus for the transanal instillation of an enema into the rectum respectively colon of a patient, comprising an inflatable balloon of waistline, in particular dumbbell or hourglass-shaped form given by preforming in the manufacturing process with two terminal balloon sections (4,5) of larger radius (D 1 /2; D 2 /2) and approximately spherical or discoid shape, as well as a centered tapered balloon section of reduced radius arranged in between, which is transanally placed in such a way that the distally adjoining radially extended balloon section is placed intrarectal, and the proximally adjoining radially extended balloon section extracorporeal, characterized by the fact that both of the balloon ends (6,7) are tapering down to the shank dimension of a catheter shank carrying the balloon, and from an inflection point of its longitudinal section each of the same are everted onefold inside and/or inverted, i.e. are pushed into the inside of the balloon by a certain amount, and in this onefold inverted or pushed-in condition are preferably fixed on the outer lateral surface of the catheter shank in such a way that during filling the balloon, the both radially extended balloon sections (4,5) are approaching each other in opposite axial directions, and where both radially extended balloon sections (4,5) are enlarged relative to the centered tapered down balloon section in such a way that at the transanally placed balloon, both radially extended balloon sections (4,5) are folding over the tapered, centered balloon section in the course of filling, and are approaching towards the anus in opposite directions, thus clinging the respective anus situs in a sealing manner and thereby are limiting their relative movement, whereby in situ the distal tip of the catheter shank in its undeflected static state retracts to a protected, injuries avoiding position within the intrarectal balloon section, and thereby is positioned completely proximal to a distal vertex of a circle around a center on the symmetry axis, where the tangent of which in the inflection point corresponds to the tangent there at the longitudinal section of the not pushed-in balloon.
An IoT device random access method based on a massive MIMO technology, used in a cellular IoT communication system comprising multiple user equipments and at least one base station, the base station providing multiple beams; comprising: the base station forms random access response information in different beams, which are selected by signal intensity from beams received by the base station, the signal intensity being received from the beams in which same preamble sequence from the user equipments is received; the multiple user equipments accessing the base station by using the same preamble sequence in the different beams respectively. the base station forms random access response information in different beams, which are selected by signal intensity from beams received by the base station, the signal intensity being received from the beams in which same preamble sequence from the user equipments is received; the multiple user equipments accessing the base station by using the same preamble sequence in the different beams respectively.
An apparatus for minimally invasively delivering a medical device to a target site within a patient, the apparatus comprising: a first tube having an outside surface suitable for accepting a medical device collapsed thereon in a stationary position; and a sheath comprising first and second portions (32, 34) that may be moved axially relative to each other and with respect to the first tube, the sheath portions (32, 34) configured so as to enclose a medical device collapsed onto the first tube when brought together, and configured to expose the medical device when directed away from each other, the first sheath portion comprising a section that is configured to radially bias inwardly when unconstrained, wherein the first tube comprises a hub. a first tube having an outside surface suitable for accepting a medical device collapsed thereon in a stationary position; and a sheath comprising first and second portions (32, 34) that may be moved axially relative to each other and with respect to the first tube, the sheath portions (32, 34) configured so as to enclose a medical device collapsed onto the first tube when brought together, and configured to expose the medical device when directed away from each other, the first sheath portion comprising a section that is configured to radially bias inwardly when unconstrained, wherein the first tube comprises a hub.
Wall installation connection box unit, comprising - a box housing body having a rear-side base portion and a sleeve portion projecting forward from the base portion, which sleeve portion peripherally surrounds an installation component mounting space, which space is accessible via an open front end face of the sleeve portion, - a functional surface body including a functional surface, and - a connection device which is configured for releasable fastening of the functional surface body to the base portion in different axial levels of the functional surface and comprises at least one connection structure on the base portion radially outside the sleeve portion and a connection body cooperating with the connection structure, which connection body is user-operable via an actuation interface to be movable relative to the connection structure and to the functional surface body between a released position and a fastened position, characterized in that - the connection body is rotatable between the released position and the fastened position. - a box housing body having a rear-side base portion and a sleeve portion projecting forward from the base portion, which sleeve portion peripherally surrounds an installation component mounting space, which space is accessible via an open front end face of the sleeve portion, - a functional surface body including a functional surface, and - a connection device which is configured for releasable fastening of the functional surface body to the base portion in different axial levels of the functional surface and comprises at least one connection structure on the base portion radially outside the sleeve portion and a connection body cooperating with the connection structure, which connection body is user-operable via an actuation interface to be movable relative to the connection structure and to the functional surface body between a released position and a fastened position, characterized in that - the connection body is rotatable between the released position and the fastened position.
A method of coupling a first molecule to a second molecule by a Click reaction, wherein a first molecule is coupled to a second molecule by a Click reaction, wherein the first molecule comprises a first Click functional group which is a Click-reactive unsaturated group, namely an alkyne group, and the second molecule comprises a second complementary Click functional group which is a Click-reactive 1,3-dipolar group, namely an azide group, capable of reacting with the first Click-functional group by a Click reaction, comprising contacting the first and second molecule in the presence of a heterogeneous catalyst, which is a heterogeneous Cu catalyst, under conditions wherein a Click reaction between the first and second molecule occurs, wherein one of the first and second molecules is immobilized on the heterogeneous Cu catalyst and optionally on a further solid carrier material, wherein one of the first and second molecules is a biomolecule.
A method for processing a workpiece with a laser, comprising the steps of: (a) determining a pattern to be machined on a workpiece and further a cutting boundary to define the pattern to be machined on the workpiece so as to decide a material to be removed; (b) dividing the material to be removed into a plurality of material chips, and generating a machining plan for laser cutting according to boundaries of the plurality of material chips at the pattern to be machined; and (c) according to the machining plan for laser cutting, applying a laser to cut the workpiece along the boundaries to remove orderly each of the plurality of material chips away from the workpiece; wherein the biggest size of the plurality of material chips is determined by a machinable depth of the workpiece with respect to the laser, and the machinable depth is the farthest distance that the laser reaches into the workpiece along an optical path of the laser; wherein the machinable depth of the laser is less than a thickness of the workpiece at a location thereof receiving the laser. (a) determining a pattern to be machined on a workpiece and further a cutting boundary to define the pattern to be machined on the workpiece so as to decide a material to be removed; (b) dividing the material to be removed into a plurality of material chips, and generating a machining plan for laser cutting according to boundaries of the plurality of material chips at the pattern to be machined; and (c) according to the machining plan for laser cutting, applying a laser to cut the workpiece along the boundaries to remove orderly each of the plurality of material chips away from the workpiece; wherein the biggest size of the plurality of material chips is determined by a machinable depth of the workpiece with respect to the laser, and the machinable depth is the farthest distance that the laser reaches into the workpiece along an optical path of the laser; wherein the machinable depth of the laser is less than a thickness of the workpiece at a location thereof receiving the laser.
A composite material comprising a metal foam and a graphene component present on the surface of the metal foam or inside the metal foam, wherein the metal foam has a thickness range of 70 μm to 270 μm; and wherein the metal foam has pores and a porosity in a range of 80% to 98% as calculated from the density of the metal foam. wherein the metal foam has a thickness range of 70 μm to 270 μm; and wherein the metal foam has pores and a porosity in a range of 80% to 98% as calculated from the density of the metal foam.
A heat exchange apparatus for a water chiller unit, the heat exchange apparatus comprising at least one heat exchanger module (100,200,300), wherein the heat exchanger module comprises two heat exchange units (10,20; 210,220; 310,320) comprising a main body part (12,22; 211,221) and being fitted together facing each other, at least one of the two heat exchange units (10,20; 210,220; 310,320) being bent, wherein the bent heat exchange unit (10,20; 210, 220; 310) has a front part (13,23; 223) and a rear part (14,24; 224) connected to the main body part (12,22; 211,221), wherein the front and rear parts are formed by bending a flat-plate heat exchanger along a bending axis (y) characterized in that an included angle between two edges (c,d) of the two heat exchange units (10,20; 210,220; 310,320), which edges (c,d) are adjacent at least at one end, is smaller than an included angle between main body parts (12,22; 211,221) of the two heat exchange units (10,20; 210, 220; 310, 320).
Article having a main body composed of a polymeric material having elastic properties, characterized in that the article surface is completely or partially provided with at least one cover, wherein the cover is formed from at least one sheetlike textile construct and/or from at least one spacelike textile construct and/or from at least one shrink film, each of which may of itself have a fire-retardant effect and/or has a fire-retardant finish and wherein the cover is not in direct contact with the article surface.