mhurhangee/ep-ind-claims huggingface dataset:
An access procedure for programming a non-volatile watch memory, said watch comprising two supply terminals accessible from outside the watch that define a potential difference corresponding to a standard supply voltage, and a control circuit of the non-volatile memory produced using a technology, such that the control circuit can only be supplied until a predefined maximum supply voltage, said access procedure consisting of transmitting the following to said control circuit of the non-volatile memory by means of at least one of the supply terminals of the watch: a) an opening key to authorise access to the non-volatile memory; b) an instruction for access to the non-volatile memory; characterised in that said opening key is a predefined instruction transmitted by modulation of said standard supply voltage such that this does not exceed said predefined maximum supply voltage, and that said supply voltage is not increased to authorise the programming of the cells of the non-volatile memory. a) an opening key to authorise access to the non-volatile memory; b) an instruction for access to the non-volatile memory;
A three-dimensional memory device, comprising: a substrate (102, 103, 202); and a semiconductor layer (104, 214) above and extending laterally beyond at least one edge (118, 120) of the substrate; a plurality of interleaved conductive layers (110, 218, 232) and dielectric layers (112, 220) above a front side of the semiconductor layer (104, 214) and extending below a back side of the semiconductor layer (104, 214); and a plurality of memory strings each extending vertically through the interleaved conductive layers and dielectric layers (112, 220) and in contact with the semiconductor layer (104, 214), wherein each of the conductive layers (110, 218, 232) and dielectric layers (112, 220) has a continuous bent shape in a side view comprising a first lateral portion above the front side of the semiconductor layer (104, 214), a second lateral portion below the back side of the semiconductor layer (104, 214), and a vertical portion connecting the first and second lateral portions (122, 124). 24), characterised in that the edge is a circumferential edge of the substrate. a substrate (102, 103, 202); and a semiconductor layer (104, 214) above and extending laterally beyond at least one edge (118, 120) of the substrate; a plurality of interleaved conductive layers (110, 218, 232) and dielectric layers (112, 220) above a front side of the semiconductor layer (104, 214) and extending below a back side of the semiconductor layer (104, 214); and a plurality of memory strings each extending vertically through the interleaved conductive layers and dielectric layers (112, 220) and in contact with the semiconductor layer (104, 214), wherein each of the conductive layers (110, 218, 232) and dielectric layers (112, 220) has a continuous bent shape in a side view comprising a first lateral portion above the front side of the semiconductor layer (104, 214), a second lateral portion below the back side of the semiconductor layer (104, 214), and a vertical portion connecting the first and second lateral portions (122, 124). 24), characterised in that the edge is a circumferential edge of the substrate.
A gas turbine engine, comprising: a high speed spool (32, 232, 432, 532, 632, 732) rotationally connecting a high pressure compressor (52, 452, 552, 652, 752) and a high pressure turbine (54, 454, 554, 654, 754); a low speed spool (30, 230, 430, 530, 630, 730) rotationally connecting a low pressure compressor (44, 444, 544, 644, 744) and a low pressure turbine (46, 446, 546, 646, 746); a first low spool tower shaft (204, 404, 504, 604, 704) configured for engagement with the low speed spool; a high spool tower shaft (202, 402, 502, 602, 702) configured for engagement with the high speed spool; and a high spool tower shaft motor (270, 470, 570, 670, 770) operably coupled to the high spool tower shaft and to a first generator (266, 466, 566, 666, 766); characterised by a first differential gear assembly (260, 460, 560, 660, 760) operably coupled to the first low spool tower shaft (204, 404, 504, 604, 704) and to a first motor (262, 462, 562, 662, 762) and to the first generator (266, 466, 566, 666, 766); and wherein, in use, the low spool tower shaft (204, 404, 504, 604, 704) and the first motor (262, 462, 562, 662, 762) operate as inputs to the first differential gear assembly (260, 460, 560, 660, 760). a high speed spool (32, 232, 432, 532, 632, 732) rotationally connecting a high pressure compressor (52, 452, 552, 652, 752) and a high pressure turbine (54, 454, 554, 654, 754); a low speed spool (30, 230, 430, 530, 630, 730) rotationally connecting a low pressure compressor (44, 444, 544, 644, 744) and a low pressure turbine (46, 446, 546, 646, 746); a first low spool tower shaft (204, 404, 504, 604, 704) configured for engagement with the low speed spool; a high spool tower shaft (202, 402, 502, 602, 702) configured for engagement with the high speed spool; and a high spool tower shaft motor (270, 470, 570, 670, 770) operably coupled to the high spool tower shaft and to a first generator (266, 466, 566, 666, 766); characterised by a first differential gear assembly (260, 460, 560, 660, 760) operably coupled to the first low spool tower shaft (204, 404, 504, 604, 704) and to a first motor (262, 462, 562, 662, 762) and to the first generator (266, 466, 566, 666, 766); and wherein, in use, the low spool tower shaft (204, 404, 504, 604, 704) and the first motor (262, 462, 562, 662, 762) operate as inputs to the first differential gear assembly (260, 460, 560, 660, 760).
Method of making a reflective coated glass article comprising: providing a glass substrate; forming a first gaseous mixture comprising a silane compound and inert gas and delivering the first gaseous mixture to a location above a major surface of the glass substrate to deposit a first coating layer directly on the major surface of the glass substrate, wherein the first coating layer is deposited at a thickness of 5-50 nm; and forming a second gaseous mixture comprising a silane compound, molecular oxygen, and a radical scavenger, and delivering the second gaseous mixture to a location above the first coating layer and depositing a second coating layer at a thickness of 5-50 nm over the first coating layer, wherein the coated glass article exhibits a total visible light reflectance (Illuminant D65, ten degree observer) of 45% or more from the coated side of the coated glass article, and wherein the second coating layer is deposited directly on the first coating layer and forms the outermost layer of the coating. providing a glass substrate; forming a first gaseous mixture comprising a silane compound and inert gas and delivering the first gaseous mixture to a location above a major surface of the glass substrate to deposit a first coating layer directly on the major surface of the glass substrate, wherein the first coating layer is deposited at a thickness of 5-50 nm; and forming a second gaseous mixture comprising a silane compound, molecular oxygen, and a radical scavenger, and delivering the second gaseous mixture to a location above the first coating layer and depositing a second coating layer at a thickness of 5-50 nm over the first coating layer, wherein the coated glass article exhibits a total visible light reflectance (Illuminant D65, ten degree observer) of 45% or more from the coated side of the coated glass article, and wherein the second coating layer is deposited directly on the first coating layer and forms the outermost layer of the coating.
A light source plate structure of a ceiling light, comprising a fixed top cover and a light source plate, the light source plate being detachably mounted at a lower end of the fixed top cover, the light source plate structure comprises a pivot shaft disposed at one end of the light source plate and a pivot seat arranged at one end of the fixed top cover, wherein the light source plate is configured to be pivotally connected to the fixed top cover when the pivot shaft is mounted to the pivot seat, wherein the pivot seat is provided with a sinking platform and pivot holes, the pivot holes are disposed on both sides of the sinking platform, wherein the light source plate is provided with a pivot shaft mounting member that is mounted to the sinking platform, wherein the pivot shaft is mounted at both ends of the pivot shaft mounting member and inserted in the pivot holes, and the pivot shaft at at least one end of the pivot shaft mounting member is movably mounted on the pivot shaft mounting member, wherein the pivot shaft movably mounted on the pivot shaft mounting member is a movable shaft, characterized in that the pivot shaft mounting member comprises a chamber, the movable pivot shaft is movably inserted into the chamber, the pivot shaft mounting member comprises a guide groove which is disposed on a side wall of the chamber, and the movable shaft is provided with a guide post which is movably disposed in the guide groove.
A carbon nanofiber containing Fe element; Co element; at least one element selected from the group consisting of Ti, V, and Cr; and at least one element selected from the group consisting of W and Mo, and in which a graphite layer is inclined to a fiber axis.
Contact sleeve in the form of a hollow cylinder having a casing wall and a center longitudinal axis for an electrical connector for establishing electrical contact with a mating connector, wherein the contact sleeve has at least two pairs of contact spring lamellae on its casing wall, wherein the contact spring lamellae of a pair are arranged radially opposite one another on the contact sleeve, wherein each contact spring lamella has a radial raised portion which forms an electrical contact area, wherein the raised portions of a pair of contact spring lamellae which are situated opposite one another are arranged at the same location in the axial direction with respect to the contact sleeve in such a way that the contact areas of said contact spring lamellae lie on a straight line which perpendicularly intersects the center longitudinal axis of the contact sleeve, wherein the raised portions rise radially outward above the contact sleeve, characterized in that the raised portions of at least one first pair of contact spring lamellae are arranged in a manner offset by a predetermined axial offset length in the axial direction with respect to the contact sleeve relative to the raised portions of at least one second pair of contact spring lamellae, and wherein the axial offset length between the raised portions of axially adjacent pairs of contact spring lamellae is 0.1 mm to 0.3 mm.
Brake pump for vehicles, preferably of the "go-kart" type or the like, comprising: - a pump body connectable to a braking system of a vehicle, said braking system being operable by an operator of said vehicle; - a main actuation chamber obtained in said pump body and adapted to contain a fluid usable to operate a braking element of said braking system, said main actuation chamber defining a main actuation volume having a fixed value; and - a main slider movably engaged in said main actuation chamber and adapted to generate, by its displacements inside said main actuation volume, a pressure usable to operate said braking element, characterized in that it further comprises at least one volumetric variation chamber in fluid connection with the main actuation chamber and adapted to determine a multiplicity of different values of an overall actuation volume, said overall actuation volume consisting of said main actuation volume and a corresponding multiplicity of variable actuation volumes defined by the volumetric variation chamber itself. - a pump body connectable to a braking system of a vehicle, said braking system being operable by an operator of said vehicle; - a main actuation chamber obtained in said pump body and adapted to contain a fluid usable to operate a braking element of said braking system, said main actuation chamber defining a main actuation volume having a fixed value; and - a main slider movably engaged in said main actuation chamber and adapted to generate, by its displacements inside said main actuation volume, a pressure usable to operate said braking element,
A device for the connection and reconstruction of a ligament of the reversible type comprising a central portion for reconstruction and two connecting portions (10a, 10b) to the two ends of said central portion, said device further comprising an outer carbon coating, characterized in that said central portion of said connection device is made of silicone, said central portion covers said two connecting portions (10a, 10b), said two connecting portions (10a, 10b) being generally shaped as a grid for receiving fixing means adapted to fix said device to said ligament, and in that said central portion is made with a plurality of superimposed silicone layers (11, 12).
A medical infusion system, comprising: an infusion set (200, 600) comprising an adhesive patch, and an upper housing attached to the adhesive patch; an infusion set connector (210, 460, 610) releasably attachable to the upper housing; a lineset (180, 580) comprising flexible tubing attached to the infusion set connector (210, 460, 610); a luer connector (170, 455, 570) attached to the lineset; an infusion pumping comprising a housing, a data entry keypad, a display, and a microprocessor comprising a pre-programmed priming sequence; and a harness connected to the housing of the infusion pumping; wherein the infusion set connector (210, 460, 610) is releasably attachable to the harness; wherein the harness is configured for releasable attachment to the infusion set connector (210, 460, 610), and wherein the harness comprises a sensing element for determining when the infusion set connector (210, 460, 610) is releasably attached to the harness, and wherein the pre-programmed priming sequence is enabled by the microprocessor when the sensing element provides a signal to the microprocessor indicating that the harness is releasably attached to the infusion set connector (210, 460, 610). an infusion set (200, 600) comprising an adhesive patch, and an upper housing attached to the adhesive patch; an infusion set connector (210, 460, 610) releasably attachable to the upper housing; a lineset (180, 580) comprising flexible tubing attached to the infusion set connector (210, 460, 610); a luer connector (170, 455, 570) attached to the lineset; an infusion pumping comprising a housing, a data entry keypad, a display, and a microprocessor comprising a pre-programmed priming sequence; and a harness connected to the housing of the infusion pumping; wherein the infusion set connector (210, 460, 610) is releasably attachable to the harness; wherein the harness is configured for releasable attachment to the infusion set connector (210, 460, 610), and wherein the harness comprises a sensing element for determining when the infusion set connector (210, 460, 610) is releasably attached to the harness, and wherein the pre-programmed priming sequence is enabled by the microprocessor when the sensing element provides a signal to the microprocessor indicating that the harness is releasably attached to the infusion set connector (210, 460, 610).
A vehicle electrically driving assembly, connected to vehicle axle half shafts of a vehicle, wherein; the vehicle electrically driving assembly comprises: an electric motor, a speed reducer, an electromagnetic tooth-mounted clutch and a differential; the differential is connected between the vehicle axle half shafts; when the electromagnetic tooth-mounted clutch is in engagement, a driving force of the electric motor is transmitted to the vehicle axle half shafts via the speed reducer and the electromagnetic tooth-mounted clutch, to provide the driving force to the vehicle; characterized in that the speed reducer is provided with multiple stages of gears, an input shaft and an intermediate shaft; where the electromagnetic tooth-mounted clutch is installed on the input shaft or the intermediate shaft of the speed reducer or on the vehicle axle half shafts; and where the speed reducer comprises: a first stage driving gear, a first stage driven gear, a second stage driving gear and a second stage driven gear, and the gears of the same stage are in engagement; where the electromagnetic tooth-mounted clutch comprises: a fixed face tooth, a movable face tooth, a solenoid assembly and a return elastic assembly, and when the solenoid assembly is powered off, the return elastic assembly drives the movable face tooth to reset, the return elastic assembly is a spring, an elastic sheet, a diaphragm spring or a spring assembly, and the spring assembly comprises several springs and; where the electromagnetic tooth-mounted clutch is a normally open clutch or a normally closed clutch.
A bussing connector, comprising: bus bar connections, each of the bus bar connections comprising an output section and an input section, the input sections of the bus bar connections cooperatively forming a multiphase alternating current, AC, input; output elements arranged along and in electrical communication with the output sections of each of the bus bar connections; and dielectric material configured to partially surround and partially electrically insulate the input and output sections and the output elements of each of the bus bar connections, the dielectric material being further configured to expose the multiphase AC input and portions of each of the outlet elements of each of the bus bar connections, wherein each of the output elements of each of the output sections of each of the bus bar connections cooperatively form multiple linear three-phase output element groups, and the dielectric material comprises elongate elements interposed between neighboring pairs of the bus bar connections and plugs that surround the multiple output elements in corresponding ones of each of the multiple linear three-phase output element groups. bus bar connections, each of the bus bar connections comprising an output section and an input section, the input sections of the bus bar connections cooperatively forming a multiphase alternating current, AC, input; output elements arranged along and in electrical communication with the output sections of each of the bus bar connections; and dielectric material configured to partially surround and partially electrically insulate the input and output sections and the output elements of each of the bus bar connections, the dielectric material being further configured to expose the multiphase AC input and portions of each of the outlet elements of each of the bus bar connections, wherein each of the output elements of each of the output sections of each of the bus bar connections cooperatively form multiple linear three-phase output element groups, and the dielectric material comprises elongate elements interposed between neighboring pairs of the bus bar connections and plugs that surround the multiple output elements in corresponding ones of each of the multiple linear three-phase output element groups.
A method for reconfiguring pin assignments on a connector, the method comprising: reading a present accessory type from an accessory coupled to the connector having a plurality of pins wherein the present accessory type is associated with an accessory pin assignment of the connector; comparing the present accessory type to a stored accessory type associated with a connector pin assignment to determine if the accessory pin assignment is compatible with the connector pin assignment; wherein the stored accessory type is associated with a prior accessory coupled to the connector; and if the present accessory type has not changed with regard to the stored accessory type, reading a present flag from the accessory memory in the accessory to determine whether to perform a check if additional data in addition to the present accessory type is required from the accessory to communicate with the accessory; changing the connector pin assignment based on the comparison between the present accessory type and the stored accessory type; wherein the present accessory type is read through at least one of the plurality of pins. reading a present accessory type from an accessory coupled to the connector having a plurality of pins wherein the present accessory type is associated with an accessory pin assignment of the connector; comparing the present accessory type to a stored accessory type associated with a connector pin assignment to determine if the accessory pin assignment is compatible with the connector pin assignment; wherein the stored accessory type is associated with a prior accessory coupled to the connector; and if the present accessory type has not changed with regard to the stored accessory type, reading a present flag from the accessory memory in the accessory to determine whether to perform a check if additional data in addition to the present accessory type is required from the accessory to communicate with the accessory; changing the connector pin assignment based on the comparison between the present accessory type and the stored accessory type; wherein the present accessory type is read through at least one of the plurality of pins.
A shark barrier comprising a plurality of resiliently flexible, elongate members extending in a generally upright condition between a sea floor and a sea surface, the elongate members arranged so as to have the appearance of a thicket when viewed from below the sea surface, at least some of the elongate members having one or more magnets associated therewith.