mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: identifying a target row of memory that has been accessed more than a threshold number of times; the method characterised in that it further comprises: determining whether the target row of memory has been repaired; if the target row of memory has not been repaired, refreshing (425, 430) one or more rows of memory physically adjacent the target row of memory; and if the target row of memory has been repaired, determining if one or more rows physically adjacent a row of redundant memory associated with the target row of memory are enabled and, if enabled, refreshing (440, 450, 455) the one or more rows physically adjacent the row of redundant memory (262, 264, 266, 268) associated with the target row of memory. identifying a target row of memory that has been accessed more than a threshold number of times; the method characterised in that it further comprises: determining whether the target row of memory has been repaired; if the target row of memory has not been repaired, refreshing (425, 430) one or more rows of memory physically adjacent the target row of memory; and if the target row of memory has been repaired, determining if one or more rows physically adjacent a row of redundant memory associated with the target row of memory are enabled and, if enabled, refreshing (440, 450, 455) the one or more rows physically adjacent the row of redundant memory (262, 264, 266, 268) associated with the target row of memory.
A method for controlling the mould cooling process during forming of glass containers in an IS type glass forming machine, characterised in that it includes the following steps: a) analysing the mould structure in terms of heat exchange between the glass, the mould, and the coolant, b) receiving data from sensors (1, 2, 3, 6, 7, 8, 9, 10, 11, 12) relating to pressure loss in the conduit supplying the coolant to the mould, pressure loss in the glass forming machine, to the point of entering the mould by the coolant, gob temperature before being fed into the blank mould, air temperature and humidity in the conduit, after completing the compression work by the fan, and introducing it to the calculation module, c) introducing the desired production rate and maximum time of realising the cooling event in the timing, as well as the type of material the mould is made of and/or maximum mould temperature allowed, into the calculation module, d) based on the introduced and received data, performing numerical calculations in the calculation module B, deriving the working point of the fan (13, 14, 15) and cooling event timing, ensuring maximum efficiency of the cooling system. a) analysing the mould structure in terms of heat exchange between the glass, the mould, and the coolant, b) receiving data from sensors (1, 2, 3, 6, 7, 8, 9, 10, 11, 12) relating to pressure loss in the conduit supplying the coolant to the mould, pressure loss in the glass forming machine, to the point of entering the mould by the coolant, gob temperature before being fed into the blank mould, air temperature and humidity in the conduit, after completing the compression work by the fan, and introducing it to the calculation module, c) introducing the desired production rate and maximum time of realising the cooling event in the timing, as well as the type of material the mould is made of and/or maximum mould temperature allowed, into the calculation module, d) based on the introduced and received data, performing numerical calculations in the calculation module B, deriving the working point of the fan (13, 14, 15) and cooling event timing, ensuring maximum efficiency of the cooling system.
Pipetting method, comprising the steps of: - providing a dosing liquid receiving space having a pipetting opening as a first flow cross-sectional constriction, wherein the provided dosing liquid receiving space is at least partially filled with a working fluid, and - aspirating dosing liquid through the pipetting opening into the dosing liquid receiving space by reducing a pressure of the working fluid by means of a pressure changing device, which is designed to change the pressure of the working fluid in the dosing liquid receiving space, and wherein a throttle point is arranged in a pipetting channel arranged fluid-mechanically between the dosing liquid receiving space and the pressure changing device, wherein the working fluid flows through the throttle point as a further flow cross-sectional constriction during aspiration, characterized in that the pipetting channel has a valve adjustable between a closed position, in which a working fluid flow in the pipetting channel is prevented, and an open position, in which a working fluid flow in the pipetting channel is permitted, in that a liquid quantity of the dosing liquid is determined by a time during which the valve is opened, and in that a ratio of the flow resistance of the pipetting opening with respect to the dosing liquid to the flow resistance of the throttle point with respect to the working fluid is less than 0.5, in particular is less than 0.3 and in particular is less than 0.225. - providing a dosing liquid receiving space having a pipetting opening as a first flow cross-sectional constriction, wherein the provided dosing liquid receiving space is at least partially filled with a working fluid, and - aspirating dosing liquid through the pipetting opening into the dosing liquid receiving space by reducing a pressure of the working fluid by means of a pressure changing device, which is designed to change the pressure of the working fluid in the dosing liquid receiving space, and wherein a throttle point is arranged in a pipetting channel arranged fluid-mechanically between the dosing liquid receiving space and the pressure changing device, wherein the working fluid flows through the throttle point as a further flow cross-sectional constriction during aspiration,
A method for manufacturing a wiring board or a wiring board material, the method comprising the steps of: preparing a laminate material including a support sheet, a plurality of columnar metal members on the support sheet, a wiring board or a wiring board material (WB') having a plurality of openings (19a, 20a) in portions corresponding to the columnar metal members such that the columnar metal members are positioned in the respective openings, a resin film which adheres to a surface of the wiring board or the wiring board material and has a plurality of openings: in portions corresponding to the columnar metal members, and a prepreg: having a plurality of openings in portions corresponding to the columnar metal members and containing a thermosetting resin; integrating the laminate material by heating and pressing to obtain a laminate including a thermosetting resin filled and cured between an inner surface of each of the openings of the wiring board or the wiring board material and each of the columnar metal members; and peeling at least the support sheet and the resin film from the laminate. preparing a laminate material including a support sheet, a plurality of columnar metal members on the support sheet, a wiring board or a wiring board material (WB') having a plurality of openings (19a, 20a) in portions corresponding to the columnar metal members such that the columnar metal members are positioned in the respective openings, a resin film which adheres to a surface of the wiring board or the wiring board material and has a plurality of openings: in portions corresponding to the columnar metal members, and a prepreg: having a plurality of openings in portions corresponding to the columnar metal members and containing a thermosetting resin; integrating the laminate material by heating and pressing to obtain a laminate including a thermosetting resin filled and cured between an inner surface of each of the openings of the wiring board or the wiring board material and each of the columnar metal members; and peeling at least the support sheet and the resin film from the laminate.
Method of manufacturing a single-piece micromechanical component (31, 41, 61, 91) including at least two distinct functional levels, characterized in that it includes the following steps: a) forming a silicon substrate whose top surface is electrically conductive; b) structuring a mould from a photosensitive resin in order to form cavities whose base is formed by said electrically conductive top surface; c) filling the cavities of the mould by galvanoplasty to form a metal part (21, 51, 81); d) selectively machining one portion of the metal part (21, 51, 81) to form a single-piece micromechanical component (31, 41, 61, 91) having at least two distinct functional levels; e) releasing the micromechanical component (31, 41, 61, 91) from the substrate and the photosensitive resin. a) forming a silicon substrate whose top surface is electrically conductive; b) structuring a mould from a photosensitive resin in order to form cavities whose base is formed by said electrically conductive top surface; c) filling the cavities of the mould by galvanoplasty to form a metal part (21, 51, 81); d) selectively machining one portion of the metal part (21, 51, 81) to form a single-piece micromechanical component (31, 41, 61, 91) having at least two distinct functional levels; e) releasing the micromechanical component (31, 41, 61, 91) from the substrate and the photosensitive resin.
A method for processing a sequence of digital signal samples coming from at least one modulated analog signal, the sample sequence comprising a first sample sub-sequence (E1-E9) and a second sample sub-sequence (E10-E14) separate from the first sample sub-sequence, the method comprising steps of: • forming a first sample block comprising the first sample sub-sequence (E1-E9), and a second sample block comprising header samples (E6-E9) followed by the second sample sub-sequence (E10-E14), • demodulating the first block of digital signal samples by a first digital demodulator, so as to produce a first symbol block (S2-S4), • demodulating the second block of digital signal samples by a second digital demodulator independent of the first digital demodulator so as to produce a second symbol block (S4-S6), the second digital demodulator implementing a carrier and/or symbol rate synchronization, and taking as input the second sample block starting with the header samples (E6-E9), the header samples comprising a suitable number of synchronization samples for the synchronization to be effective before the second digital demodulator starts to demodulate the second sample sub-sequence (E10-E14), • reconstructing an output symbol sequence by concatenating a symbol sequence coming from the first symbol block with a symbol sequence coming from the second symbol block, wherein the first sample sub-sequence comprises tail samples of the first sample block, and the header samples of the second sample block correspond to the tail samples. • forming a first sample block comprising the first sample sub-sequence (E1-E9), and a second sample block comprising header samples (E6-E9) followed by the second sample sub-sequence (E10-E14), • demodulating the first block of digital signal samples by a first digital demodulator, so as to produce a first symbol block (S2-S4), • demodulating the second block of digital signal samples by a second digital demodulator independent of the first digital demodulator so as to produce a second symbol block (S4-S6), the second digital demodulator implementing a carrier and/or symbol rate synchronization, and taking as input the second sample block starting with the header samples (E6-E9), the header samples comprising a suitable number of synchronization samples for the synchronization to be effective before the second digital demodulator starts to demodulate the second sample sub-sequence (E10-E14), • reconstructing an output symbol sequence by concatenating a symbol sequence coming from the first symbol block with a symbol sequence coming from the second symbol block,
Method for detecting the passage of an individual, employing an infrared detector, and a radar connected to a microwave interface, the microwave interface comprising at least one high-pass filter, the at least one high-pass filter having a time constant for filtering a signal delivered by the radar, characterized in that the method comprises the steps of: - activating (E400, E401) an electrical power supply of the microwave interface when the passage of an individual is detected by the infrared detector, - decreasing (E403, E404) the time constant of the at least one filter during a first preset duration, - modifying the decreased time constant to obtain the time constant for filtering the signal delivered by the radar when the first preset duration has passed, - obtaining confirmation of the passage of an individual by the microwave interface, - deactivating the electrical power supply of the microwave interface after the confirmation of detection of the passage of an individual by the microwave interface and/or after the end of a delay activated on activation of the electrical power supply of the microwave frequency. - activating (E400, E401) an electrical power supply of the microwave interface when the passage of an individual is detected by the infrared detector, - decreasing (E403, E404) the time constant of the at least one filter during a first preset duration, - modifying the decreased time constant to obtain the time constant for filtering the signal delivered by the radar when the first preset duration has passed, - obtaining confirmation of the passage of an individual by the microwave interface, - deactivating the electrical power supply of the microwave interface after the confirmation of detection of the passage of an individual by the microwave interface and/or after the end of a delay activated on activation of the electrical power supply of the microwave frequency.
Suction tape unit, configured and adapted for transporting tobacco in a suction rod conveyor of the tobacco-processing industry, comprising a housing for forming a closed operating area, wherein arranged in the operating area are a continuously rotating suction tape, by means of which tobacco is transported from an infeed area of the suction tape unit to a discharge area of the suction tape unit, a plurality of deflection elements arranged on the housing around which the suction tape is guided, and at least one vacuum unit for holding the tobacco on the suction tape, wherein at least one of the deflection elements is designed as a compacting disk, and assigned to each compacting disk, which is arranged in the discharge area of the suction tape unit, is a scraping element arranged at a distance from the compacting disk, wherein each compacting disk is designed to be adjustable in relation to the scraping element by means of a regulating device for changing the distance, characterised in that actuating means for actuating the regulating device for adjusting the distance between each compacting disk and the scraping element are arranged outside the operating area.
A coupling structure for receiving a laundry treatment appliance thereon, said coupling structure comprising one or more coupling elements (5, 6, 10, 11) to be coupled to the appliance and comprising a connecting device having a shape elongated in one direction which has a first end connected or adapted to be connected to said coupling structure the connecting device has a second end provided with an attaching member for attaching said connecting device to a holding element available in a location where the appliance has to be placed, such that a movement of the appliance increasing the distance between the holding element and the coupling structure attached thereto is prevented, characterised in that the connecting device is made of a resilient flexible material which elastically deforms when subject to a shearing force and is substantially inextensible when subjected to a traction force acting in a direction parallel to the elongation direction of the elongated shaped connecting device.
An ink composition, comprising: water; and a particle comprising a photopolymerizable monomer and a polymer having a blocked isocyanate group having an unblocking temperature of 150°C or less. water; and a particle comprising a photopolymerizable monomer and a polymer having a blocked isocyanate group having an unblocking temperature of 150°C or less.
Arrangement for cooling (NKAA, NKK) a power module with at least one power unit in a housing, having at least one heat sink, characterized in that the arrangement for cooling has at least one heat-sink cover (NKKA), and at least a part of the power module, in particular the housing, at least a part of the heat sink and/or at least a part of the heat-sink cover (NKKA) are/is configured in such a way that, after attachment of the heat-sink cover (NKKA), the heat sink is fixed in the housing, in particular by way of clamping, through interaction of the configuration of heat sink, heat-sink cover (NKKA) and/or housing, wherein the configuration is realized at least partially as an at least partial form fit and/or force fit of heat sink, heat-sink cover (NKKA) and/or housing and the force fit is configured by way of formation of at least one clamp and/or at least one snap-action hook in the heat-sink cover (NKAA) and cutout in the housing and/or heat sink and vice versa.
Saddle for vehicles, such as bicycles or motorcycles, comprising a seat component defining a support surface for a user and a base component to which said seat component is constrained or connected, said base component comprising a first internal face facing towards said seat component and defining therewith an internal zone of said saddle and a second face facing away from said seat component, characterized in that it comprises at least one printed circuit, at least one heating and/or cooling element and/or at least one sensor as well as at least one connector designed to wire or electrically connect said at least one printed circuit and said at least one heating and/or cooling element and/or said at least one sensor, said at least one heating and/or cooling element and/or said at least one sensor being interposed between said seat component and said base component or connected to or embedded in or disposed within said seat component, said saddle comprising at least one casing or lid attached to said base component, said at least one casing or lid and said base component defining among them at least one housing seat, said at least one printed circuit being housed in said at least one housing seat, said at least one casing or lid is constrained to said first internal face of said base component, so that said at least one housing seat is within said internal zone or said at least one casing or lid is constrained to said second face of said base component, so that said at least one housing seat is outside of said internal zone, said saddle comprising a padding within said internal zone obtained by pouring or injecting a liquid or fluid into said internal zone and subsequent hardening or solidification of the same, wherein said at least one housing seat is closed with liquid or fluid tight so as to prevent the passage or entry thereinto from the internal zone of the liquid or fluid for making the padding before it hardens or solidifies. said saddle comprising at least one casing or lid attached to said base component, said at least one casing or lid and said base component defining among them at least one housing seat, said at least one printed circuit being housed in said at least one housing seat, said at least one casing or lid is constrained to said first internal face of said base component, so that said at least one housing seat is within said internal zone or said at least one casing or lid is constrained to said second face of said base component, so that said at least one housing seat is outside of said internal zone, said saddle comprising a padding within said internal zone obtained by pouring or injecting a liquid or fluid into said internal zone and subsequent hardening or solidification of the same, wherein said at least one housing seat is closed with liquid or fluid tight so as to prevent the passage or entry thereinto from the internal zone of the liquid or fluid for making the padding before it hardens or solidifies.
A method of processing a semiconductor substrate, comprising: forming a first material on a substrate surface; forming a second material on the first material; forming a plurality of first trenches into the second material, wherein the plurality of first trenches are parallel to each other and wherein the forming of the plurality of first trenches comprises: forming a photo resist material on the second material; selectively removing the photo resist material to expose columns of the second material; and etching away the exposed columns of the second material; forming a second trench into the second material after the forming of the plurality of first trenches, wherein the second trench is perpendicular to and crosses the plurality of first trenches in a central region of the substrate, the forming of the second trench comprises: forming a second photo resist material on the second material; selectively removing a strip of the second photo resist material to expose a row of the second material; and etching away the exposed row of the second material; filling the first and second trenches with a third material; removing the second material to form third trenches in the third material that are parallel to each other and do not extend through the central region of the substrate; and extending the third trenches through the first material and into the substrate. forming a first material on a substrate surface; forming a second material on the first material; forming a plurality of first trenches into the second material, wherein the plurality of first trenches are parallel to each other and wherein the forming of the plurality of first trenches comprises: forming a photo resist material on the second material; selectively removing the photo resist material to expose columns of the second material; and etching away the exposed columns of the second material; forming a photo resist material on the second material; selectively removing the photo resist material to expose columns of the second material; and etching away the exposed columns of the second material; forming a second trench into the second material after the forming of the plurality of first trenches, wherein the second trench is perpendicular to and crosses the plurality of first trenches in a central region of the substrate, the forming of the second trench comprises: forming a second photo resist material on the second material; selectively removing a strip of the second photo resist material to expose a row of the second material; and etching away the exposed row of the second material; forming a second photo resist material on the second material; selectively removing a strip of the second photo resist material to expose a row of the second material; and etching away the exposed row of the second material; filling the first and second trenches with a third material; removing the second material to form third trenches in the third material that are parallel to each other and do not extend through the central region of the substrate; and extending the third trenches through the first material and into the substrate.
Nozzle for a vacuum cleaner with a suction duct for coupling to a floorcare device for the purpose of sucking up dust-laden air from a surface, with a main nozzle body and a nozzle connector and a joint disposed therebetween, wherein the joint is formed from two parts (20a, 20b) able to be moved in relation to one another; characterised in that the first joint part is connected to the main nozzle body and the second joint part is connected to the nozzle connector; and that the joint part connected to the nozzle connector can be taken out of the main nozzle body and is embodied as a self-contained, fully functional auxiliary nozzle body.