mhurhangee/ep-ind-claims huggingface dataset:
A multilayered memory device (200; 1500) comprising: a plurality of memory cells (210; 1510) organized into a plurality of groups (600; 700; 800; 900) the plurality of memory cells including at least two layers of memory cells, wherein each group comprises memory cells in different layers; and a control circuit having a look-up matrix (300; 500; 1600) for providing control parameters for each of the plurality of groups, wherein characteristics of each group are stored in the look-up matrix, and the control parameters for each group are responsive to the stored characteristics for that group, and the stored characteristics and the provided control parameters are different for each group a plurality of memory cells (210; 1510) organized into a plurality of groups (600; 700; 800; 900) the plurality of memory cells including at least two layers of memory cells, wherein each group comprises memory cells in different layers; and a control circuit having a look-up matrix (300; 500; 1600) for providing control parameters for each of the plurality of groups, wherein characteristics of each group are stored in the look-up matrix, and the control parameters for each group are responsive to the stored characteristics for that group, and the stored characteristics and the provided control parameters are different for each group
A method of manufacturing a motor vehicle part, the method comprising the following steps: - providing a web (10, 60, 70), the web (10, 60, 70) comprising a mixture of binding fibres and structural fibres, - providing a heating device, the heating device comprising an upper part and a lower part, movable relative to each other between a pressure position and a spread position, - heating the web (10, 60, 70) in the heating device by bringing the web (10, 60, 70) in contact with the lower part of the heating device and with the upper part of the heating device, - shaping the web (10, 60, 70) in a shaping mould, so as to form the part, the bonding fibres being made of a first hot-melt polymer, the structural fibres being made of a second hot-melt polymer, the first hot-melt polymer having a first melting temperature, the second hot-melt polymer having a second melting temperature, the first melting temperature being lower than the second melting temperature and in that, during the heating step, the upper part of the heating device is maintained at a first heating temperature and the lower part of the heating device is maintained at a second heating temperature, the second heating temperature being strictly higher than the first heating temperature, characterised in that the first heating temperature is greater than or equal to the first melting temperature and the second heating temperature is greater than or equal to the second melting temperature. - providing a web (10, 60, 70), the web (10, 60, 70) comprising a mixture of binding fibres and structural fibres, - providing a heating device, the heating device comprising an upper part and a lower part, movable relative to each other between a pressure position and a spread position, - heating the web (10, 60, 70) in the heating device by bringing the web (10, 60, 70) in contact with the lower part of the heating device and with the upper part of the heating device, - shaping the web (10, 60, 70) in a shaping mould, so as to form the part,
A void former unit suitable for forming a void in a concrete element comprising: (a) a first void former element, the first void former element comprising a first surface and at least one first opening in the first surface; (b) a second void former element, the second void former element comprising a second surface opposite the first surface and at least one second opening in the second surface, each second opening corresponding to a first opening in the first surface, wherein the first void former element and the second void former element are connected to form a passage between each first opening and its corresponding second opening, and a single void space surrounding the or each passage, and further wherein the void former unit is modular in shape to allow for multiple void former units to be connected together, thereby substantially continuously extending: (c) the first surface; (d) the second surface; and (e) the void space between the first surface and the second surface, across multiple void former units. (a) a first void former element, the first void former element comprising a first surface and at least one first opening in the first surface; (b) a second void former element, the second void former element comprising a second surface opposite the first surface and at least one second opening in the second surface, each second opening corresponding to a first opening in the first surface, wherein the first void former element and the second void former element are connected to form a passage between each first opening and its corresponding second opening, and a single void space surrounding the or each passage, and further wherein the void former unit is modular in shape to allow for multiple void former units to be connected together, thereby substantially continuously extending: (c) the first surface; (d) the second surface; and (e) the void space between the first surface and the second surface, across multiple void former units. (c) the first surface; (d) the second surface; and (e) the void space between the first surface and the second surface, across multiple void former units.
A support mechanism for an object, the support mechanism including at least two fixed legs (3, 5), at least two moveable legs (4, 6) and an interconnection means, each leg including a ground engaging means (3c, 4c, 5c, 6c), the at least two fixed legs together including a first and a third leg, the interconnection means being intermediate and rigidly connected to the at least two fixed legs, the at least two moveable legs together including a second and a fourth leg, each moveable leg including a beam portion (4a, 6a), one end of the beam portion being connected to the interconnection means by a pivot having a pivot axis, each moveable leg further including at least one support member (19, 20, 21, 22) connected to the beam portion and extending from the beam portion, at least one object support portion (19b, 20b, 21 b, 22b) being provided on each support member, the object support portion being in contact with the object in use and providing a substantially vertical support force to the object, locating means attached to the object and located relative to the interconnection means to permit relative displacement between the locating means and the interconnection means in a substantially upward direction and to prevent relative displacement between the locating means and the interconnection means in a substantially horizontal direction, such that substantially vertical displacement of the ground engaging means of one of the moveable legs relative to the fixed legs causes substantially vertical displacement of the support member of the associated moveable leg and therefore substantially vertical displacement of the object and the locating means relative the interconnection means and the fixed legs, causing another of the at least two moveable legs to rotate, the support mechanism thereby conforming to an uneven surface.
A refrigerator assembly, comprising a soft freeze assembly disposed within a freezer compartment of the refrigerator assembly, the refrigerator assembly including a fresh food compartment maintained at a first temperature arranged adjacent the freezer compartment maintained at a second temperature, characterized in that the soft freeze assembly including: a support structure comprising a heat transfer opening and being attached to a wall within the freezer compartment; and a storage bin supported by the support structure and movable with respect to the support structure, the support structure and storage bin being structured to allow air exterior from the freezer compartment to enter the storage bin via the heat transfer opening so as to maintain the storage bin at a third temperature that is colder than the first temperature and warmer than the second temperature when the freezer compartment is in a closed orientation. a support structure comprising a heat transfer opening and being attached to a wall within the freezer compartment; and a storage bin supported by the support structure and movable with respect to the support structure, the support structure and storage bin being structured to allow air exterior from the freezer compartment to enter the storage bin via the heat transfer opening so as to maintain the storage bin at a third temperature that is colder than the first temperature and warmer than the second temperature when the freezer compartment is in a closed orientation.
A child-resistant closure for a container, the child-resistant closure comprising outer and inner nested caps (15, 25) each having a top panel (16, 26) and a side skirt (17, 27) depending generally peripherally therefrom, said outer cap loosely generally encompassing said inner cap to allow relative rotary and axial movement therebetween, the rotary movement being in a direction of rotation around a longitudinal axis of the child-resistant closure, the axial movement being in a direction along said longitudinal axis, the outer and inner caps (15, 25) having corresponding drive formations (19, 34) which can be brought into driving engagement when the outer and inner caps (15, 25) are moved axially towards one another to a first axial position, one of the outer and inner caps (15, 25) comprising one or more spring members for urging the outer and inner caps (15, 25) axially away from each other to a second axial position, the other of the outer and inner caps (15, 25) comprising one or more ramps, the one or more spring members providing a biasing force to maintain said outer and inner caps (15, 25) in the second axial position and drivingly engaging the ramps in the second axial position so as to drive the outer and inner caps (15, 25) together in a screwing direction, the screwing direction being in a first direction of rotation around said longitudinal axis, but slipping over the one or more ramps freely in an unscrewing direction the unscrewing direction being in a second direction of rotation around said longitudinal axis, the second direction of rotation opposite the first direction of rotation, downward pressure on the outer cap overcoming the spring member bias to move the outer and inner caps (15, 25) to the first axial position to allow unscrewing of the child-resistant closure using the drive formations (19, 34), in which the or each ramp is profiled to support the one or more spring members substantially continuously as the spring member passes over in the unscrewing direction, characterised in that the or each ramp has a variable section sweep having a generally constant radius trajectory and a section that sweeps along the radius that constantly changes, in which the section varies as the ramp height increases, such that the ramp face is not flat, and in which the profile of the ramp constantly changes as the ramp height increases, and the ramp height increases in the unscrewing direction, whereby the or each spring member is in maximum contact with the or each ramp through rotation in the unscrewing direction.
An ultrasonic diagnosis device, comprising: an operation panel including a plurality of input units that are operated by a user for ultrasonic diagnosis; a lifting mechanism that varies a height of the operation panel; and a horizontal movement mechanism which is supported by the lifting mechanism and on which the operation panel is mounted, the horizontal movement mechanism having a layered structure, wherein the horizontal movement mechanism includes: a left-right slide mechanism that guides a slide movement of the operation panel in a left-right direction; a forward-backward slide mechanism that guides a slide movement of the operation panel in a forward-backward direction; and a rotation mechanism having a rotational shaft member that moves in the left-right direction by the left-right slide mechanism, the rotation mechanism guiding a rotation movement of the operation panel characterized in that the rotational shaft member further moves in the forward-backward direction by the forward-backward slide mechanism. an operation panel including a plurality of input units that are operated by a user for ultrasonic diagnosis; a lifting mechanism that varies a height of the operation panel; and a horizontal movement mechanism which is supported by the lifting mechanism and on which the operation panel is mounted, the horizontal movement mechanism having a layered structure, wherein the horizontal movement mechanism includes: a left-right slide mechanism that guides a slide movement of the operation panel in a left-right direction; a forward-backward slide mechanism that guides a slide movement of the operation panel in a forward-backward direction; and a rotation mechanism having a rotational shaft member that moves in the left-right direction by the left-right slide mechanism, the rotation mechanism guiding a rotation movement of the operation panel characterized in that the rotational shaft member further moves in the forward-backward direction by the forward-backward slide mechanism. a left-right slide mechanism that guides a slide movement of the operation panel in a left-right direction; a forward-backward slide mechanism that guides a slide movement of the operation panel in a forward-backward direction; and a rotation mechanism having a rotational shaft member that moves in the left-right direction by the left-right slide mechanism, the rotation mechanism guiding a rotation movement of the operation panel characterized in that the rotational shaft member further moves in the forward-backward direction by the forward-backward slide mechanism.
A brushless electric motor adapted to be driven by an inverter using a pulse width modulation system, comprising a stator having a stator core and a coil wound around the stator core, a rotor having a rotating body positioned inside the stator and a shaft connected to the rotating body in a manner to penetrate through the center of the rotating body, two bearings (15; 15a, 15b) rotatably supporting the shaft, and two conductive brackets (17, 19) fixing the bearings (15; 15a, 15b), said conductive brackets (17, 19) being connected to each other and electrically insulated from the stator core, wherein the rotating body comprises: an outer iron core (31 a) configuring an outer peripheral portion of the rotating body; an inner iron core configuring an inner peripheral portion of the rotating body; and a dielectric layer (50; 60; 70) providing an impedance between the stator core and the shaft; characterized in that: the rotating body further comprises: a plurality of insertion holes penetrating the outer iron core in an axial direction; and permanent magnets inserted individually in the plurality of insertion holes; wherein the inner iron core is connected to the shaft; wherein the dielectric layer (50; 60; 70) is disposed between the outer iron core and the inner iron core, and is formed of an insulation resin that has a given value of dielectric constant which allows a high frequency current to flow between the outer iron core (31 a) and inner iron core (31 b). an outer iron core (31 a) configuring an outer peripheral portion of the rotating body; an inner iron core configuring an inner peripheral portion of the rotating body; and a dielectric layer (50; 60; 70) providing an impedance between the stator core and the shaft; the rotating body further comprises: a plurality of insertion holes penetrating the outer iron core in an axial direction; and permanent magnets inserted individually in the plurality of insertion holes; wherein the inner iron core is connected to the shaft; wherein the dielectric layer (50; 60; 70) is disposed between the outer iron core and the inner iron core, and is formed of an insulation resin that has a given value of dielectric constant which allows a high frequency current to flow between the outer iron core (31 a) and inner iron core (31 b). a plurality of insertion holes penetrating the outer iron core in an axial direction; and permanent magnets inserted individually in the plurality of insertion holes; wherein the inner iron core is connected to the shaft; wherein the dielectric layer (50; 60; 70) is disposed between the outer iron core and the inner iron core, and is formed of an insulation resin that has a given value of dielectric constant which allows a high frequency current to flow between the outer iron core (31 a) and inner iron core (31 b).
A method for transmitting a multimedia broadcast/multicast service in a single frequency network, comprising the steps: A. allocating, by a Radio Network Controller, the same time and frequency resources, scrambling code and midamble to target cells or sectors to transmit broadcast/multicast service data, distributing information of the allocated resources, the scrambling code and midamble to base stations of the target cells or sectors and a UE, and sending the broadcast/multicast service data to the base stations of the target cells or sectors; characterized by B. rotating, by each of the base stations, a broadcast/multicast service burst signal to be sent by a random phase, and sending the rotated signal to the UE using the time and frequency resources allocated by the Radio Network Controller, wherein the rotation of the broadcast/multicast service burst signal by the random phase is implemented by multiplying the broadcast/multicast service burst complex signal in baseband form, intermediate frequency form or radio frequency form by a complex signal cos(θ)+ j *sin(θ), where θ is a phase rotating factor and is a random number or pseudo random number evenly distributed in a range of 0~2π. A. allocating, by a Radio Network Controller, the same time and frequency resources, scrambling code and midamble to target cells or sectors to transmit broadcast/multicast service data, distributing information of the allocated resources, the scrambling code and midamble to base stations of the target cells or sectors and a UE, and sending the broadcast/multicast service data to the base stations of the target cells or sectors; characterized by B. rotating, by each of the base stations, a broadcast/multicast service burst signal to be sent by a random phase, and sending the rotated signal to the UE using the time and frequency resources allocated by the Radio Network Controller, wherein
A method comprising: delivering, using a material delivery device, material adjacent to a repair surface of a component, wherein the repair surface is a surface of the component to which material is being added; delivering, from an energy source, energy to the material adjacent the repair surface to fuse the material to the repair surface; receiving, by a computing device, at least one parameter, the method being characterized in that it further comprises: delivering, using a gas delivery device, a gas adjacent to the repair surface; said method being further characterized in that the parameter is such that it is indicative of at least one of a geometry of a surface feature in a portion of the component to which material is being added, a geometry of the portion of the component to which material is being added, or a distortion of a geometry of the component to which material is being added;and responsive to the at least one parameter indicative of the at least one of the geometry of the surface feature in the portion of the component to which material is being added, the geometry of the portion of the component to which material is being added, or the distortion of the geometry of the component to which material is being added, controlling, by the computing device, at least one processing parameter to control the temperature of the portion of the component to which material is being added and form a predetermined microstructure in the material fused to the repair surface. delivering, using a material delivery device, material adjacent to a repair surface of a component, wherein the repair surface is a surface of the component to which material is being added; delivering, from an energy source, energy to the material adjacent the repair surface to fuse the material to the repair surface; receiving, by a computing device, at least one parameter, the method being characterized in that it further comprises: delivering, using a gas delivery device, a gas adjacent to the repair surface; said method being further characterized in that the parameter is such that it is indicative of at least one of a geometry of a surface feature in a portion of the component to which material is being added, a geometry of the portion of the component to which material is being added, or a distortion of a geometry of the component to which material is being added;and responsive to the at least one parameter indicative of the at least one of the geometry of the surface feature in the portion of the component to which material is being added, the geometry of the portion of the component to which material is being added, or the distortion of the geometry of the component to which material is being added, controlling, by the computing device, at least one processing parameter to control the temperature of the portion of the component to which material is being added and form a predetermined microstructure in the material fused to the repair surface.
A calibration arrangement for temperature sensors comprising - a sealable and thermally isolated chamber; - a socket mount comprising - a number of reference samples with each of the reference samples being in thermal contact with the socket mount; and - a number of sample sockets for devices-under-test, DUTs, with each sample socket being arranged in proximity to and associated to at least one of the reference samples; - a circuit board configured to provide electrical connection to the sample sockets and the reference samples in the socket mount; and - a thermal chuck in thermal contact with the socket mount and the circuit board, the thermal chuck being configured to thermalize the socket mount and the circuit board to a temperature set point. - a sealable and thermally isolated chamber; - a socket mount comprising - a number of reference samples with each of the reference samples being in thermal contact with the socket mount; and - a number of sample sockets for devices-under-test, DUTs, with each sample socket being arranged in proximity to and associated to at least one of the reference samples; - a circuit board configured to provide electrical connection to the sample sockets and the reference samples in the socket mount; and - a thermal chuck in thermal contact with the socket mount and the circuit board, the thermal chuck being configured to thermalize the socket mount and the circuit board to a temperature set point.