mhurhangee/ep-ind-claims huggingface dataset:
An elevator device using a magnetic-pole position estimating method, for estimating a magnetic-pole position by using an induced voltage generated by rotation of a motor of a hoisting machine to perform running control on a car driven by the rotation of the hoisting machine, the elevator device comprising: a detector provided outside the hoisting machine, for detecting a position of the car in a predetermined speed zone in which the accuracy or reliability obtained by the magnetic-pole position estimating control is insufficient, the detector comprising a detector for detecting a strand of a rope; and a control section, for switching between the running control on the car by using the magnetic-pole position estimating control method and the running control on the car based on results of detection by the detector according to a running speed of the car, for performing the running control on the car by using the magnetic-pole position estimating control method when it is determined that the car is not in the predetermined speed zone, and for performing the running control on the car based on results of detection by the detector when it is determined that the car is in the predetermined speed zone, wherein the control section determines that the car is not in the predetermined speed zone to perform the running control using the magnetic-pole position estimating control method when the running speed of the car exceeds a predetermined super-low speed and determines that the car is in the predetermined speed zone to perform the running control based on the results of the detection by the detector, when the running speed of the car is equal to or lower than the predetermined super-low speed. a detector provided outside the hoisting machine, for detecting a position of the car in a predetermined speed zone in which the accuracy or reliability obtained by the magnetic-pole position estimating control is insufficient, the detector comprising a detector for detecting a strand of a rope; and a control section, for switching between the running control on the car by using the magnetic-pole position estimating control method and the running control on the car based on results of detection by the detector according to a running speed of the car, for performing the running control on the car by using the magnetic-pole position estimating control method when it is determined that the car is not in the predetermined speed zone, and for performing the running control on the car based on results of detection by the detector when it is determined that the car is in the predetermined speed zone, wherein the control section determines that the car is not in the predetermined speed zone to perform the running control using the magnetic-pole position estimating control method when the running speed of the car exceeds a predetermined super-low speed and determines that the car is in the predetermined speed zone to perform the running control based on the results of the detection by the detector, when the running speed of the car is equal to or lower than the predetermined super-low speed.
A power supply module for rear-side power supply of a power distribution busbar system comprising a number, N, of busbars integrated in a housing of a touch-protected busbar board (27, 28) for distribution of electrical power for busbar components connectable to said busbars, said power supply module comprising: an electrically isolating housing comprising a front side and a back side comprising lateral touch protection cover elements, wherein the isolating housing is configured to be mounted with said back side to a mounting plate; at least one clamping block (3; 6) having a number, N, of clamping contacts (4; 7) adapted to clamp electrical conductors (5; 8) to said clamping block (3; 6); a number, N, of electrically conductive and touch protected intermediate bars provided between the at least one clamping block (3;6) and a number, N, of touch-protected electrical contacts provided at the front side of said power supply module and adapted to establish an electrical connection between the busbars of said power distribution busbar system and the intermediate bars of said power supply module, wherein the intermediate bars are covered on the front side by the electrically isolating housing front side and by the lateral touch protection cover elements. an electrically isolating housing comprising a front side and a back side comprising lateral touch protection cover elements, wherein the isolating housing is configured to be mounted with said back side to a mounting plate; at least one clamping block (3; 6) having a number, N, of clamping contacts (4; 7) adapted to clamp electrical conductors (5; 8) to said clamping block (3; 6); a number, N, of electrically conductive and touch protected intermediate bars provided between the at least one clamping block (3;6) and a number, N, of touch-protected electrical contacts provided at the front side of said power supply module and adapted to establish an electrical connection between the busbars of said power distribution busbar system and the intermediate bars of said power supply module, wherein the intermediate bars are covered on the front side by the electrically isolating housing front side and by the lateral touch protection cover elements.
An IC socket with an opening/closing body, including a socket body for accommodating an IC package, a cover member for pressing the IC package accommodated in the socket body and a lever member for pressing the cover member while the cover member is closed, the cover member and the lever member being rotatably coupled to one edge of a base portion of the socket body and being adapted to be rotated to be opened and closed, the opening/closing mechanism further comprising: a first shaft by which the lever member is rotatably supported on the base portion, a second shaft by which a link plate is rotatably mounted to the lever member, and a third shaft by which the cover member is rotatably mounted to the link plate, wherein the third shaft is vertically movably supported in a long hole on the base portion of the socket body so that the cover member can be raised and lowered with respect to the socket body, the link plate operates through the second shaft when the lever member is rotated in a closing direction of the lever member about the first shaft, and the cover member is pushed down through the third shaft with the operation of the link plate. a first shaft by which the lever member is rotatably supported on the base portion, a second shaft by which a link plate is rotatably mounted to the lever member, and a third shaft by which the cover member is rotatably mounted to the link plate, wherein the third shaft is vertically movably supported in a long hole on the base portion of the socket body so that the cover member can be raised and lowered with respect to the socket body, the link plate operates through the second shaft when the lever member is rotated in a closing direction of the lever member about the first shaft, and the cover member is pushed down through the third shaft with the operation of the link plate.
An expandable, exothermic particulate gel-forming composition for heating surfaces and objects, comprising galvanic alloy particles, wherein the composition comprises a uniform blend of galvanic alloy particles and of slush powder of a super absorbent polymer; the composition is gel-forming and characterized in that it is capable of expanding at least two-fold (volume/volume) as the mixture is hydrated and is capable of producing heat for at least one hour by an exothermic reaction of the composition when being exposed to water and an electrolyte, wherein the galvanic alloy particles generally consist of a mixture of two or more metallic agents, each with a different oxidation potential, such that one serves as the cathode and the other serves as the anode in an electrochemical reaction in an activator solution; wherein the galvanic alloy particles generally consisting of a mixture of two or more metallic agents and the slush powder are configured to build a gellable particulate, whereby the gellable particulate limits the reaction potential of the galvanic alloy particles so that a controlled reaction takes place which ensues as moisture is transferred from the gellable particulate to the galvanic alloy particles, whereby the reaction liberates heat and hydrogen gas, and creates oxides of the galvanic alloy particles, whereby the heat is transferred back into the gel which stores the heat.
A method of proactively adjusting energy demand of at least one outdoor lighting network connected to a smart power grid, comprising: collecting first zone energy supply information and first zone load demand information of each of a plurality of first zone lighting units of said lighting network for each of a plurality of first zone subintervals; collecting second zone energy supply information and second zone load demand information of each of a plurality of second zone lighting units of said lighting network for each of a plurality of second zone subintervals; receiving electricity prices from a utility for a plurality of future first zone subintervals of said first zone subintervals and for a plurality of future second zone subintervals of said second zone subintervals proactively adjusting a first zone light operation strategy of said first zone lighting units prior to said future first zone subintervals based on said first zone energy supply information, said first zone load demand information, and said electricity prices; and proactively adjusting a second zone light operation strategy of said second zone lighting units prior to said future second zone subintervals based on said second zone energy supply information, said second zone load demand information, and said electricity prices. collecting first zone energy supply information and first zone load demand information of each of a plurality of first zone lighting units of said lighting network for each of a plurality of first zone subintervals; collecting second zone energy supply information and second zone load demand information of each of a plurality of second zone lighting units of said lighting network for each of a plurality of second zone subintervals; receiving electricity prices from a utility for a plurality of future first zone subintervals of said first zone subintervals and for a plurality of future second zone subintervals of said second zone subintervals proactively adjusting a first zone light operation strategy of said first zone lighting units prior to said future first zone subintervals based on said first zone energy supply information, said first zone load demand information, and said electricity prices; and proactively adjusting a second zone light operation strategy of said second zone lighting units prior to said future second zone subintervals based on said second zone energy supply information, said second zone load demand information, and said electricity prices.
Ethylene-propylene copolymer (E-PP) having (a) a melt flow rate (MFR 2) measured according to ISO 1133 in the range of 0.5 to 7.0 g/lOmin, (b) a melting temperature Tm of more than 163 °C, (c) an ethylene content of more than 0.05 wt.-% to 0.80 wt.-% based on the total weight of the ethylene-propylene copolymer (E-PP), and (d) a crystalline fraction melting above 170 to 180 °C of at least 14.0 wt.-%, wherein said fraction is determined by the stepwise isothermal segregation technique (SIST). (a) a melt flow rate (MFR 2) measured according to ISO 1133 in the range of 0.5 to 7.0 g/lOmin, (b) a melting temperature Tm of more than 163 °C, (c) an ethylene content of more than 0.05 wt.-% to 0.80 wt.-% based on the total weight of the ethylene-propylene copolymer (E-PP), and (d) a crystalline fraction melting above 170 to 180 °C of at least 14.0 wt.-%, wherein said fraction is determined by the stepwise isothermal segregation technique (SIST).
A dental implant (130; 230; 330) for promoting bone growth, comprising: an elongated implant body having a coronal end portion (131; 231; 331) and an apical end portion (132; 232; 332), at least one external thread (140; 240; 340), a flute arrangement having a depth, said flute arrangement having at least two helical flutes (150; 250; 350) that spiral in the general direction of said at least one external thread (140; 240; 340), wherein the helical flutes (150; 250; 350) are propagating at least one turn around the implant body, that said flutes (150; 250; 350) propagating with a greater lead than said at least one thread (140; 240; 340), and said flute arrangement being capable of scraping off and transferring bone debris in the coronal direction of the implant during insertion. an elongated implant body having a coronal end portion (131; 231; 331) and an apical end portion (132; 232; 332), at least one external thread (140; 240; 340), a flute arrangement having a depth, said flute arrangement having at least two helical flutes (150; 250; 350) that spiral in the general direction of said at least one external thread (140; 240; 340), wherein the helical flutes (150; 250; 350) are propagating at least one turn around the implant body, that said flutes (150; 250; 350) propagating with a greater lead than said at least one thread (140; 240; 340), and said flute arrangement being capable of scraping off and transferring bone debris in the coronal direction of the implant during insertion.
A wireless peripheral for wireless communication with a master device and comprising a first peripheral device and a second peripheral device, wherein: at least one of the first peripheral device and the second peripheral device is arranged to communicate with the master device by transmitting and receiving first wireless signals conveying first packets (304, 304a, 304b, 304c, 304d) occupying transmit and receive time slots (300, 302) comprising inter-frame space; and the first peripheral device and the second peripheral device are arranged to communicate with each other by transmitting and receiving second wireless signals conveying second packets (606, 608, 610) within said inter-frame space, characterized in that the second packets comprise concatenated handshake packets and data packets. at least one of the first peripheral device and the second peripheral device is arranged to communicate with the master device by transmitting and receiving first wireless signals conveying first packets (304, 304a, 304b, 304c, 304d) occupying transmit and receive time slots (300, 302) comprising inter-frame space; and the first peripheral device and the second peripheral device are arranged to communicate with each other by transmitting and receiving second wireless signals conveying second packets (606, 608, 610) within said inter-frame space, characterized in that the second packets comprise concatenated handshake packets and data packets.
A method for preparing fluorine-18-labeled flumazenil from a diaryliodonium salt precursor, comprising reacting the diaryliodonium salt precursor with fluorine-18 at 130 to 160°C in the presence of kryptofix 2.2.2. /potassium carbonate (K 2.2.2. /K 2 CO 3) as a phase transition catalyst, wherein the diaryliodonium salt precursor is represented by the following chemical formula 1: wherein Ar is selected from the group consisting of: and X - is selected from trifluoromethane sulfonates, perfluoro C 2 -C 10 alkyl sulphonate, trifluoroacetate, tetraphenylborate, toluene sulfonate, Br, and Cl.
Multiaxial applicator device for application of products, such as enamels, engobes or similar products on ceramic articles, such as ceramic slabs or tiles, said articles being moved in succession on a conveyor in a forward direction, said applicator device being equipped with a plurality of nozzles controlled by a control unit to supply a jet of said product onto each article passing by, said applicator device including: a first motor-driven carriage and at least a second motor-driven carriage, each of them bearing mounted at least one said nozzle, the carriages being reciprocatingly movable in substantially parallel directions and transversely with respect to said forward direction, above said conveyor, between two extreme positions (P1, P2), for stopping and reversing the motion of said motor-driven carriages (12,112), these positions being located outside a transit area of said articles, on opposite sides with respect to the same, for moving the relative said nozzles from one side to the other one of said conveyor; said movements defining, for each of said nozzle, application paths consisting of back and forth passes sequences, which in turn define corresponding application areas on the surface of said articles; said control unit being provided with program means for controlling the movements of each of said motor-driven carriages (12,112) in reciprocal phase relation according to different times, intended for regulating, for each said dispenser belonging to said at least second carriage, the position of a product application area on the article with respect to application areas corresponding to dispensers belonging to said first carriage said applicator device being characterized in that it moreover includes collecting means (20,120) situated on both sides of said conveyor and in correspondence of said extreme positions (P1,P2) of said motor-driven carriages (12,112), so as to collect and recover the product dispensed by said dispensers during their dwell and/or during their reverse motion.
A photovoltaic device, comprising: a layer stack; and an absorber layer disposed on the layer stack, wherein the absorber layer comprises cadmium, tellurium, and selenium, and wherein an atomic concentration of selenium varies non-linearly across a thickness of the absorber layer and wherein a total amount of selenium in the absorber layer is lower than a total amount of selenium in a cadmium telluride selenide layer having a linear ramp selenium concentration profile across the same thickness starting at 0% selenium and rising to 40% selenium. a layer stack; and an absorber layer disposed on the layer stack, wherein the absorber layer comprises cadmium, tellurium, and selenium, and wherein an atomic concentration of selenium varies non-linearly across a thickness of the absorber layer and wherein a total amount of selenium in the absorber layer is lower than a total amount of selenium in a cadmium telluride selenide layer having a linear ramp selenium concentration profile across the same thickness starting at 0% selenium and rising to 40% selenium. wherein the absorber layer comprises cadmium, tellurium, and selenium, and wherein an atomic concentration of selenium varies non-linearly across a thickness of the absorber layer and wherein a total amount of selenium in the absorber layer is lower than a total amount of selenium in a cadmium telluride selenide layer having a linear ramp selenium concentration profile across the same thickness starting at 0% selenium and rising to 40% selenium.
Process for preparing a biological sample comprising biological species, implemented in a preparation system, said preparation system comprising a device that includes: - A housing with at least one opening, - A first channel provided in said housing, - A second channel provided in said housing, - A chamber into which the first channel and the second channel open, - A filter separating said chamber into two distinct spaces, so as to define a first space into which said first injection channel opens and a second space into which said second channel opens, said filter having a porosity suitable for retaining said biological material to be analysed, said process being characterized in that it comprises the following steps: - Injection of the biological sample in the form of a fluid via the first channel to concentrate biological species in the first space of the chamber of said device, - Lysis of said biological species in said chamber to grind said biological species and separate the membranes from the intracellular material, - Elution of the intracellular material by injecting an amplification buffer (TP_AMP) through the first channel of the device, to elute said material via the second channel, - Injection of an immunological buffer fluid (TP_IM) via the second channel of the device so as to at least partially elute said biological species with said immunological buffer fluid. - A housing with at least one opening, - A first channel provided in said housing, - A second channel provided in said housing, - A chamber into which the first channel and the second channel open, - A filter separating said chamber into two distinct spaces, so as to define a first space into which said first injection channel opens and a second space into which said second channel opens, said filter having a porosity suitable for retaining said biological material to be analysed, - Injection of the biological sample in the form of a fluid via the first channel to concentrate biological species in the first space of the chamber of said device, - Lysis of said biological species in said chamber to grind said biological species and separate the membranes from the intracellular material, - Elution of the intracellular material by injecting an amplification buffer (TP_AMP) through the first channel of the device, to elute said material via the second channel, - Injection of an immunological buffer fluid (TP_IM) via the second channel of the device so as to at least partially elute said biological species with said immunological buffer fluid.
A semiconductor light emitting element comprising: a semiconductor structure including a first conductivity type semiconductor layer; and a second conductivity type semiconductor layer arranged above the first conductivity type semiconductor layer; a first electrode arranged on the first conductivity type semiconductor layer; a second electrode arranged on the second conductivity type semiconductor layer; a first light transmissive insulating film partially formed between the first conductivity type semiconductor layer and the first electrode; and a second light transmissive insulating film partially formed between the second conductivity type semiconductor layer and the second electrode, wherein the second electrode includes: a first layer arranged on the second conductivity type semiconductor layer and the second light transmissive insulating film; and a second layer arranged on the first layer, and wherein the second layer of the second electrode is provided inside an area where the second light transmissive insulating film is formed in a plan view of the light emitting element. a semiconductor structure including a first conductivity type semiconductor layer; and a second conductivity type semiconductor layer arranged above the first conductivity type semiconductor layer; a first electrode arranged on the first conductivity type semiconductor layer; a second electrode arranged on the second conductivity type semiconductor layer; a first light transmissive insulating film partially formed between the first conductivity type semiconductor layer and the first electrode; and a second light transmissive insulating film partially formed between the second conductivity type semiconductor layer and the second electrode, wherein the second electrode includes: a first layer arranged on the second conductivity type semiconductor layer and the second light transmissive insulating film; and a second layer arranged on the first layer, and a first layer arranged on the second conductivity type semiconductor layer and the second light transmissive insulating film; and a second layer arranged on the first layer, and wherein the second layer of the second electrode is provided inside an area where the second light transmissive insulating film is formed in a plan view of the light emitting element.