mhurhangee/ep-ind-claims huggingface dataset:
Device for simulating cardiopulmonary resuscitation techniques comprising a base which is coupled to a chest piece in the shape of a human thorax and is designed to be elastically deformed towards the base when pressure is placed thereon by a user, a hollow space existing between said base and said chest piece, wherein an upper end of the base is articulated to a head piece in the partial shape of a human face, wherein the device comprises a pressure adjustment piece located in a central area of the base the plan projection of which corresponds with the area where pressure is applied for cardiopulmonary resuscitation, wherein said pressure adjustment piece is designed to occupy a first position, in which at least an upper height stop limits the deformation of the chest piece when pressure is placed thereon, a second position, in which at least one lower height stop limits the deformation of the chest piece when pressure is placed thereon, the limit deformation of the chest piece in said second position being greater than the limit deformation in the first position, and a third position, in which the deformation of the chest piece is not limited by stops, characterized in that each upper height stop prolongs into an upper pivot and each lower height stop prolongs into a lower pivot, said lower pivot and upper pivot being designed to be alternatively housed in at least one guide prolonging from the inner face of the chest piece.
A coating composition comprising: an aqueous dispersion of polymer particles; an aliphatic epoxy resin system that is distinct from the polymer particles; wherein the aliphatic epoxy resin system has (a) a first component having oxirane functional groups and having an epoxy equivalent weight less than 1000 and (b) a second component having reactive groups that can react with the oxirane groups; wherein the term "aliphatic epoxy" refers to an epoxy resin derived from compounds having less than 5 % aromatic alcohol groups based on the total weight of the aliphatic epoxy resin and encompasses epoxy-functional latex polymers which themselves have been formed using non-phenol-containing aromatic monomers, epoxy-functional resins which are the reaction product of an oxirane precursor molecule and a non-phenol-containing aromatic acid, and epoxy resins principally derived from phenol or substituted phenols where the aromatic ring structure of the phenol or substituted phenol has been hydrogenated; and wherein the coating composition contains 5 to 60% solids by weight based on the total weight of the non-volatile components. an aqueous dispersion of polymer particles; an aliphatic epoxy resin system that is distinct from the polymer particles; wherein the aliphatic epoxy resin system has (a) a first component having oxirane functional groups and having an epoxy equivalent weight less than 1000 and (b) a second component having reactive groups that can react with the oxirane groups; wherein the term "aliphatic epoxy" refers to an epoxy resin derived from compounds having less than 5 % aromatic alcohol groups based on the total weight of the aliphatic epoxy resin and encompasses epoxy-functional latex polymers which themselves have been formed using non-phenol-containing aromatic monomers, epoxy-functional resins which are the reaction product of an oxirane precursor molecule and a non-phenol-containing aromatic acid, and epoxy resins principally derived from phenol or substituted phenols where the aromatic ring structure of the phenol or substituted phenol has been hydrogenated; and wherein the coating composition contains 5 to 60% solids by weight based on the total weight of the non-volatile components.
An attachment device (100, 200, 300, 400) for a rail comprising: a fastener (102, 202, 302, 402); a clip (104, 204, 304, 404) coupled to the fastener, the clip comprising: first and second members (110, 112) having respective first and second engagement surfaces (116, 118) that oppose each other and define a gap sized to receive a portion of the rail; and a bridging member connecting the first and second members to each other, the bridging member having at least one opening aligned with the gap and providing access for a prying tool to resiliently deflect the first and/or second engagement surface and facilitate detachment of the clip from the rail, wherein the first member, bridging member, and second member are arranged in a bi-folded, overlapping relation whereby the second member is disposed between the first member and the bridging member as viewed from a transverse direction, and wherein the bridging member has a third engagement surface for engaging an inner surface of the rail. a fastener (102, 202, 302, 402); a clip (104, 204, 304, 404) coupled to the fastener, the clip comprising: first and second members (110, 112) having respective first and second engagement surfaces (116, 118) that oppose each other and define a gap sized to receive a portion of the rail; and a bridging member connecting the first and second members to each other, the bridging member having at least one opening aligned with the gap and providing access for a prying tool to resiliently deflect the first and/or second engagement surface and facilitate detachment of the clip from the rail, wherein the first member, bridging member, and second member are arranged in a bi-folded, overlapping relation whereby the second member is disposed between the first member and the bridging member as viewed from a transverse direction, and wherein the bridging member has a third engagement surface for engaging an inner surface of the rail. first and second members (110, 112) having respective first and second engagement surfaces (116, 118) that oppose each other and define a gap sized to receive a portion of the rail; and a bridging member connecting the first and second members to each other, the bridging member having at least one opening aligned with the gap and providing access for a prying tool to resiliently deflect the first and/or second engagement surface and facilitate detachment of the clip from the rail, wherein the first member, bridging member, and second member are arranged in a bi-folded, overlapping relation whereby the second member is disposed between the first member and the bridging member as viewed from a transverse direction, and wherein the bridging member has a third engagement surface for engaging an inner surface of the rail.
A portable terminal comprising: a first antenna; a second antenna; a first communication unit configured to process a first communication scheme signal communicated through the first antenna; a second communication unit configured to process a second communication scheme signal communicated through the second antenna; and a control unit configured to configure the first antenna as a diversity antenna for the second communication unit when the first communication unit, operates in an idle mode or the first communication unit does not transmit a signal in a transmission period of the first communication unit, wherein when the first antenna is configured as the diversity antenna, the second communication unit is configured to process second communication scheme signals communicated through the first antenna and the second antenna, and wherein the idle mode indicates an operation state where the first communication unit does not operate in a transmission mode and periodically or continuously checks whether a received signal is present. a first antenna; a second antenna; a first communication unit configured to process a first communication scheme signal communicated through the first antenna; a second communication unit configured to process a second communication scheme signal communicated through the second antenna; and a control unit configured to configure the first antenna as a diversity antenna for the second communication unit when the first communication unit, operates in an idle mode or the first communication unit does not transmit a signal in a transmission period of the first communication unit, wherein when the first antenna is configured as the diversity antenna, the second communication unit is configured to process second communication scheme signals communicated through the first antenna and the second antenna, and wherein the idle mode indicates an operation state where the first communication unit does not operate in a transmission mode and periodically or continuously checks whether a received signal is present.
An implantable device, comprising: an accumulator operably configured for selective movement between a first volume and a second volume; a piezoelectric driver (74, 76) coupled to the accumulator and operably configured to actuate selectively the accumulator between the first volume and the second volume; a controller operably configured to control the piezoelectric driver; and further comprising a transmission (52, 54, 56) forming a lead screw engagement with a case (24, 26) of the implantable device, the piezoelectric driver comprising a harmonic motor (74, 76) operatively configured to rotate the transmission about the lead screw engagement to thereby actuate the accumulator. an accumulator operably configured for selective movement between a first volume and a second volume; a piezoelectric driver (74, 76) coupled to the accumulator and operably configured to actuate selectively the accumulator between the first volume and the second volume; a controller operably configured to control the piezoelectric driver; and further comprising a transmission (52, 54, 56) forming a lead screw engagement with a case (24, 26) of the implantable device, the piezoelectric driver comprising a harmonic motor (74, 76) operatively configured to rotate the transmission about the lead screw engagement to thereby actuate the accumulator.
A light emitter device comprising: a submount comprising an upper surface and a bottom surface; plurality of light emitters (114a-c) disposed on the upper surface of the submount, the plurality of light emitters (114a-c) comprising an upper surface and one or more sides; a light affecting material (120, 124) disposed on the upper surface of the submount and adjacent to the one or more sides of the plurality of light emitters (114a-c); and a single wavelength conversion component disposed over the upper surface of the plurality of light emitters (114a-c), wherein the wavelength conversion component comprises (i) a transparent substrate comprising an upper substrate surface and a lower substrate surface, and (ii) a spray-coated phosphor material disposed on the lower substrate surface, characterized in that the spray-coated phosphor material comprises a mixture of phosphor and silicone, and wherein the spray-coated phosphor material is further disposed on a sidewall of the transparent substrate. a submount comprising an upper surface and a bottom surface; plurality of light emitters (114a-c) disposed on the upper surface of the submount, the plurality of light emitters (114a-c) comprising an upper surface and one or more sides; a light affecting material (120, 124) disposed on the upper surface of the submount and adjacent to the one or more sides of the plurality of light emitters (114a-c); and a single wavelength conversion component disposed over the upper surface of the plurality of light emitters (114a-c), wherein the wavelength conversion component comprises (i) a transparent substrate comprising an upper substrate surface and a lower substrate surface, and (ii) a spray-coated phosphor material disposed on the lower substrate surface, characterized in that the spray-coated phosphor material comprises a mixture of phosphor and silicone, and wherein the spray-coated phosphor material is further disposed on a sidewall of the transparent substrate.
A power plant comprising an internal combustion engine, a turbo charger and an epicyclic gear system, the epicyclic gear system comprising: an input sun gear coupled to a turbine shaft of the turbo charger; a first set of planet gears distributed around and meshing with the input sun gear; a carrier holding the first set of planet gears and defining a rotational axis about which the carrier rotates; a second set of planet gears mounted to the carrier; and an output sun gear, wherein the second set of planet gears are distributed around and mesh with the output sun gear, the output sun gear is coupled to the internal combustion engine so as to deliver rotational power to the internal combustion engine, the carrier being selectively driven by a variable speed drive to regulate output to the output sun gear over a range of input rotational speeds of the input sun gear. an input sun gear coupled to a turbine shaft of the turbo charger; a first set of planet gears distributed around and meshing with the input sun gear; a carrier holding the first set of planet gears and defining a rotational axis about which the carrier rotates; a second set of planet gears mounted to the carrier; and an output sun gear, wherein the second set of planet gears are distributed around and mesh with the output sun gear, the output sun gear is coupled to the internal combustion engine so as to deliver rotational power to the internal combustion engine, the carrier being selectively driven by a variable speed drive to regulate output to the output sun gear over a range of input rotational speeds of the input sun gear.
Cart-like platform formed by a frame which rests on at least four wheels, said frame being in turn formed by at least two main beams and by at least two secondary beams placed transversely with respect to the at least two main beams, wherein: - the platform comprises at least one levelling element (16,20) associated directly or indirectly with the at least two main beams; wherein the frame has further a series of reinforcing cross-pieces placed transversely with respect to the at least two main beams, said main beams being I-beams, and characterized in that the platform further comprises a plurality of cross-beams positioned transversely and on top of the at least two main beams, at least one pair of said levelling elements being provided for each cross-beam and said levelling elements being slidably mounted on the respective cross-beams. - the platform comprises at least one levelling element (16,20) associated directly or indirectly with the at least two main beams; wherein the frame has further a series of reinforcing cross-pieces placed transversely with respect to the at least two main beams, said main beams being I-beams, and characterized in that the platform further comprises a plurality of cross-beams positioned transversely and on top of the at least two main beams, at least one pair of said levelling elements being provided for each cross-beam and said levelling elements being slidably mounted on the respective cross-beams.
Wheel of a gas turbine comprising at least one blade mounted on a disk and at least one vibration damper received in a housing under a platform of the blade, the vibration damper comprising a plate for clamping against the platform and a flyweight for concentrating forces for controlling frictional forces against the platform via the clamping plate, the plate and the flyweight being made independently and coupled together reversibly, the coupling of the plate and of the flyweight being formed by surrounding at least partially the flyweight by at least one area for clamping the plate against the platform, the plate being sufficiently flexible to be adapted to the required contact level, the plate having an upper wall defining the area for clamping the plate against the platform, the upper wall of the plate being arranged on an upper face of the flyweight, the wheel being characterised in that only the upper wall of the plate is capable of being clamped against the platform.
A method for monitoring movement of at least one in-plane moving mirror in a MEMS device which comprises one or more moving in-plane mirrors, wherein said monitoring is based upon capacitance changes in said MEMS device over time, and wherein said method comprising the steps of: a. adding DC voltage to a driving voltage required for the movement of said at least one moving mirror; b. measuring current that is proportional to capacitance changes associated with the movement of said at least one moving mirror, and said measured current is associated with said DC voltage, the capacitance changes being measured in time windows where the high driving signal does not exist; and c. monitoring said at least one moving mirror movement based on the measured current; and wherein the driving voltage required for the movement of said at least one moving mirror comprises a series of periodical signals and wherein at least one signal of that series is missed to enable establishing a complete cycle of the capacitance change, and the current measurement is continued during a time segment of the omitted signal. a. adding DC voltage to a driving voltage required for the movement of said at least one moving mirror; b. measuring current that is proportional to capacitance changes associated with the movement of said at least one moving mirror, and said measured current is associated with said DC voltage, the capacitance changes being measured in time windows where the high driving signal does not exist; and c. monitoring said at least one moving mirror movement based on the measured current;
Microelectrode (1, 11, 21, 31, 41, 51, 80, 90, 100, 134, 134', 134", 134′′′, 150, 150', 150ʺ, 150′′′, 150′′′, 230, 231, 232, 233, 234, 234', A, A', A", B, C, E, F, G, H, H', Hʺ H′′′ Hʺʺ, h, h', h", h"', hʺʺ) for implantation into soft tissue, in particular nervous or endocrine tissue, comprising an oblong electrode body (2, 12, 22, 32, 42, 52, 82, 92, 102, 142, 222, 322, 422) of electrically conducting material having a proximal end and a distal end, the body comprising insulated distal and proximal sections extending from the distal and proximal ends, the distal section optionally comprising a bulb (229, 329, 429) at its distal end; wherein the distal and proximal sections are separated by an annular section (5, 15, 25, 35, 45, 55, 85, 95, 105, 125, 125', 125", 145, 225, 325, 425), wherein the proximal section is covered by a layer of first insulating material (3, 13, 23, 33, 43, 53, 83, 93, 103, 143, 223, 323, 423) and wherein the electrode comprises a blunt distal terminal bulge (4, 4', 4", 14, 24, 34, 44, 54, 84, 94, 104, 124, 124', 124", 144, 229+223', 229+223'+224, 229+224, 329+321, 429+421) formed by one of: - layer of first insulating material (23', 223') on the distal section; - layer of first insulating material (23', 223') on the distal section covered or fully or partly substituted by a layer of a second insulating material (224, 321, 421); - when the distal section comprises the bulb-layer of first insulating material (23', 223') and/or second insulating material (224, 321, 421) on the bulb (229, 329, 429); characterized in that the bulge (4, 4', 4", 14, 24, 34, 44, 54, 84, 94, 104, 124, 124', 124", 144, 229+223', 229+223'+224, 229+224, 329+321, 429+421) has a radial extension substantially greater than that of the proximal section covered by the layer of first insulating material (3, 13, 23, 33, 43, 53, 83, 93, 103, 143, 223, 323, 423). - layer of first insulating material (23', 223') on the distal section; - layer of first insulating material (23', 223') on the distal section covered or fully or partly substituted by a layer of a second insulating material (224, 321, 421); - when the distal section comprises the bulb-layer of first insulating material (23', 223') and/or second insulating material (224, 321, 421) on the bulb (229, 329, 429);
An article, comprising: SiO 2 from 40 mol% to 80 mol%; Al 2 O 3 from 3 mol% to 20 mol%; B 2 O 3 from 3 mol% to 50 mol%; WO 3 plus MoOs from 1 mol% to 18 mol%; Fe 2 O 3 plus MnO 2 from 0.1 mol% to 2 mol%; and R 2 O from 0 mol% to 15 mol%, wherein the R 2 O is one or more of Li 2 O, Na 2 O, K 2 O, Rb 2 O and Cs 2 0, wherein R 2 O - Al 2 O 3 ranges from -12 mol% to +4 mol%. SiO 2 from 40 mol% to 80 mol%; Al 2 O 3 from 3 mol% to 20 mol%; B 2 O 3 from 3 mol% to 50 mol%; WO 3 plus MoOs from 1 mol% to 18 mol%; Fe 2 O 3 plus MnO 2 from 0.1 mol% to 2 mol%; and R 2 O from 0 mol% to 15 mol%, wherein the R 2 O is one or more of Li 2 O, Na 2 O, K 2 O, Rb 2 O and Cs 2 0, wherein R 2 O - Al 2 O 3 ranges from -12 mol% to +4 mol%.
Filter sound absorber, comprising: - a front element, - a rear element, and - a multiplicity of damping elements which are arranged between the front element and the rear element, the damping elements being arranged radially around a central axis of the filter sound absorber, with the result that a flow channel is configured in each case between adjacent damping elements, the respective outflow-side ends of the damping elements each having a diffuser element which has an outflow-side tapered portion, and an angle α between two opposite sides of the diffuser element being selected from a range of 1° ≤ α ≤ 8°, characterized in that the flow channel has an increasing flow cross section on the outflow side. - a front element, - a rear element, and - a multiplicity of damping elements which are arranged between the front element and the rear element,
A composition comprising a basic vegetal nutritional mixture comprising Pomegranate ( Punica granatum L.), Walnut ( Juglans nigra) and Moringa (Moringa oleifera Lam.) combined with one further vegetal nutritional component selected from Avocado ( Persea americana Mill) and Broccoli (Brassica oleracea var. italica), characterized in that the three nutritional components of the basic nutritional mixture are in ratios of 2.7-3.3: 2.7-3.3: 1.7-2.3, and the further vegetal nutritional component is in a ratio of 1.7-2.3.