mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: applying a program voltage to a first magnetic tunnel junction MTJ of a bitcell without applying the program voltage to a second MTJ of the bitcell to generate a non-reversible state at the bitcell; characterised by sensing the non-reversible state by comparing a first value read at the first MTJ and received at a first input of a differential amplifier to a second value read at the second MTJ and received at a second input of the differential amplifier, wherein the first value corresponds to a first voltage of a first bit line (230, 332BL) coupled to the first MTJ and the second value corresponds to a second voltage of a second bit line (232, 332BL#) coupled to the second MTJ. applying a program voltage to a first magnetic tunnel junction MTJ of a bitcell without applying the program voltage to a second MTJ of the bitcell to generate a non-reversible state at the bitcell; characterised by sensing the non-reversible state by comparing a first value read at the first MTJ and received at a first input of a differential amplifier to a second value read at the second MTJ and received at a second input of the differential amplifier, wherein the first value corresponds to a first voltage of a first bit line (230, 332BL) coupled to the first MTJ and the second value corresponds to a second voltage of a second bit line (232, 332BL#) coupled to the second MTJ.
Method for dressing a multi-thread grinding worm for the grinding of toothings or similar profiles, wherein the grinding worm comprises a plurality of worm threads (2, 3), each of which are dressed by means of a dressing tool with at least one dressing stroke (H1, H2, H3) in order to provide a desired profile to the grinding worm, characterised in that the method comprises the steps: a) dressing a first worm thread with the dressing tool by at least one dressing stroke (H1, H2, H3), wherein at least one process parameter is measured and detected during the dressing process; b) dressing of a further worm thread, which is different from the first worm thread, with the dressing tool by at least one dressing stroke (H1, H2, H3), wherein the process parameter is measured and detected during the dressing operation; c) after dressing all worm threads of the grinding worm: combining the measured and recorded data of the at least one process parameter; d) comparing the combined data of the at least one process parameter with data stored in a machine controller and checking whether the combined data is within a predetermined admissible range; e) outputting a signal if the combined data is not within the predefined admissible range. a) dressing a first worm thread with the dressing tool by at least one dressing stroke (H1, H2, H3), wherein at least one process parameter is measured and detected during the dressing process; b) dressing of a further worm thread, which is different from the first worm thread, with the dressing tool by at least one dressing stroke (H1, H2, H3), wherein the process parameter is measured and detected during the dressing operation; c) after dressing all worm threads of the grinding worm: combining the measured and recorded data of the at least one process parameter; d) comparing the combined data of the at least one process parameter with data stored in a machine controller and checking whether the combined data is within a predetermined admissible range; e) outputting a signal if the combined data is not within the predefined admissible range.
A method of drying a sludge, comprising the steps of subjecting the sludge to a first drying stage at a first temperature in a rotary dryer, and then subjecting the partially dried sludge to a second drying stage at a second temperature, the second temperature being lower than the first temperature, the second drying stage being effected to the partially dried sludge on a moving bed dryer, characterised by comminuting the sludge between the first and second drying stages, beginning the first drying stage whilst the sludge is relatively wet, and terminating it before the sludge substantially agglomerates, the first drying stage drying the sludge to 40% to 60% dry solids by weight, and being also a heat sterilisation process wherein the core of the sludge is heated to at least 100°C.
A mobile support system comprising: a medical device having an arm with a base, the base comprising a rail detect lever configured to be actuated when contact is made between the rail detect lever and a surface; a body comprising a housing and a carriage positioned within the housing; a support arm coupled to the carriage and extending vertically upward from the housing, the support arm configured to support the arm of the medical device; and a mounting block coupled to the carriage proximate to the support arm, the mounting block configured to couple with the base of the arm of the medical device. a medical device having an arm with a base, the base comprising a rail detect lever configured to be actuated when contact is made between the rail detect lever and a surface; a body comprising a housing and a carriage positioned within the housing; a support arm coupled to the carriage and extending vertically upward from the housing, the support arm configured to support the arm of the medical device; and a mounting block coupled to the carriage proximate to the support arm, the mounting block configured to couple with the base of the arm of the medical device.
A method in a wireless communication infrastructure entity wherein information is communicated in a frame (210, 220, 230) comprising multiple sub-frames (212, 232, 300), the method comprising: grouping a first terminal in a first group of terminals, and grouping the first terminal in a second group of terminals different from the first group of terminals; assigning the first and second groups to less than all sub-frames constituting a common frame and assigning the first and second groups to common sub-frames of the common frame; assigning a control channel of at least one assigned sub-frame to the first and second groups, wherein each group of the first and second groups has a different control channel assigned. grouping a first terminal in a first group of terminals, and grouping the first terminal in a second group of terminals different from the first group of terminals; assigning the first and second groups to less than all sub-frames constituting a common frame and assigning the first and second groups to common sub-frames of the common frame; assigning a control channel of at least one assigned sub-frame to the first and second groups, wherein each group of the first and second groups has a different control channel assigned.
Cooling device for battery cells (1, 2) assembled to form a module, comprising a base body and an insert which has receptacles for an end portion of the battery cells (1, 2), excepting the cell head, wherein the insert together with the base body delimits a flow channel for a temperature-control fluid, characterised in that the receptacles form a fluid-tight membrane which encloses the end portion of the battery cells (1, 2), is designed to be deformable for tolerance compensation of the individual battery cells (1, 2) and, when the flow channel is filled, rests against the cell bottom.
A water-dispersed electrodeposition solution for forming an insulating film comprising: polymer particles; an organic solvent; a basic compound; and water, characterized in that the polymer particles are made of: any one of; or both of polyamide-imide and polyester-imide, main chains thereof being free of an anionic group, a number-based median diameter D 50 of the polymer particles is 0.05 μm to 0.5 μm, and polymer particles having a particle size within -30% to +30% of the number-based median diameter D 50 are 50% or more of all of the polymer particles on a number basis, and wherein the number-based median diameter D50 and the percentage of particles distributed within the range ± 30% of D 50 are based on the number-based particle distribution measured with a laser diffraction scattering type particle size distribution measuring apparatus. characterized in that the polymer particles are made of: any one of; or both of polyamide-imide and polyester-imide, main chains thereof being free of an anionic group, a number-based median diameter D 50 of the polymer particles is 0.05 μm to 0.5 μm, and polymer particles having a particle size within -30% to +30% of the number-based median diameter D 50 are 50% or more of all of the polymer particles on a number basis, and wherein the number-based median diameter D50 and the percentage of particles distributed within the range ± 30% of D 50 are based on the number-based particle distribution measured with a laser diffraction scattering type particle size distribution measuring apparatus.
A system configured to provide sensory stimulation to a subject during a sleep session, the system comprising: one or more sensory stimulators configured to provide sensory stimulation to the subject; one or more sensors configured to generate output signals conveying information related to brain activity of the subject; and one or more physical computer processors configured by computer-readable instructions to: detect individual slow waves in the subject based on the output signals; control the one or more sensory stimulators to provide sensory stimulation to the subject with a timing based on the detected individual slow waves; characterized in that the one or more physical computer processors are further configured by computer-readable instructions to predict a timing for occurrence of a predicted slow wave based on previous ones of the detected individual slow waves; and responsive to not detecting the predicted slow wave at the predicted timing, control the one or more sensory stimulators to provide sensory stimulation to the subject at the predicted timing for occurrence of the predicted slow wave. one or more sensory stimulators configured to provide sensory stimulation to the subject; one or more sensors configured to generate output signals conveying information related to brain activity of the subject; and one or more physical computer processors configured by computer-readable instructions to: detect individual slow waves in the subject based on the output signals; control the one or more sensory stimulators to provide sensory stimulation to the subject with a timing based on the detected individual slow waves; characterized in that the one or more physical computer processors are further configured by computer-readable instructions to predict a timing for occurrence of a predicted slow wave based on previous ones of the detected individual slow waves; and responsive to not detecting the predicted slow wave at the predicted timing, control the one or more sensory stimulators to provide sensory stimulation to the subject at the predicted timing for occurrence of the predicted slow wave. detect individual slow waves in the subject based on the output signals; control the one or more sensory stimulators to provide sensory stimulation to the subject with a timing based on the detected individual slow waves; characterized in that the one or more physical computer processors are further configured by computer-readable instructions to predict a timing for occurrence of a predicted slow wave based on previous ones of the detected individual slow waves; and responsive to not detecting the predicted slow wave at the predicted timing, control the one or more sensory stimulators to provide sensory stimulation to the subject at the predicted timing for occurrence of the predicted slow wave.
A method of wireless communication of a user equipment, UE, comprising: determining channel state information, CSI; determining whether to send the CSI based on a timer and a threshold, wherein the UE determines to send the CSI when the difference between the CSI and reference CSI is greater than the threshold, and upon expiration of the timer even if the difference between the CSI and the reference CSI is not greater than the threshold; and sending the CSI upon determining to send the CSI. determining channel state information, CSI; determining whether to send the CSI based on a timer and a threshold, wherein the UE determines to send the CSI when the difference between the CSI and reference CSI is greater than the threshold, and upon expiration of the timer even if the difference between the CSI and the reference CSI is not greater than the threshold; and sending the CSI upon determining to send the CSI.
A saddle-type electric vehicle comprising: an electric motor that is configured to drive a rear wheel; at least two batteries that line up in a lateral direction of a vehicle body, and are configured to supply electrical power to the electric motor; a battery case that accommodates at least two batteries, has an open upper surface, and has a length in a front-rear direction greater than a lateral width of the battery case; and a head pipe connected to a front portion of the battery case, the battery case includes a beam portion therein which is disposed between the at least two batteries and extends rearward from a front wall portion of the battery case, wherein the battery case has a box shape with the open upper surface and the at least two batteries can be vertically attached to and detached from the vehicle body, characterized in that the head pipe is attached to the battery case with fasteners such as bolts, or the head pipe is formed integrally with the battery case. an electric motor that is configured to drive a rear wheel; at least two batteries that line up in a lateral direction of a vehicle body, and are configured to supply electrical power to the electric motor; a battery case that accommodates at least two batteries, has an open upper surface, and has a length in a front-rear direction greater than a lateral width of the battery case; and a head pipe connected to a front portion of the battery case, the battery case includes a beam portion therein which is disposed between the at least two batteries and extends rearward from a front wall portion of the battery case, wherein the battery case has a box shape with the open upper surface and the at least two batteries can be vertically attached to and detached from the vehicle body, characterized in that the head pipe is attached to the battery case with fasteners such as bolts, or the head pipe is formed integrally with the battery case.
Device for displaying a label with a safety icon, comprising a support panel supporting said label, a backlight module of said label comprising a plurality of light-emitting diodes assembled aligned with inter-diode spaces on an elongated printed circuit arranged along at least one edge of said support panel, and a diffusing film arranged adjacent between said backlight module and said label, characterised in that said label comprises an upper edge positioned directly opposite said plurality of light-emitting diodes, with no distance between said upper edge and said plurality of light-emitting diodes, said distance extending into the plane of said support panel, said backlight module comprising a light guide plate having a surface for coupling with said plurality of light-emitting diodes from which the light is emitted laterally into said light guide plate, a first surface arranged adjacent to said diffusing film and a second surface opposite said first surface whereon is formed a network of microlenses to direct the light guided into the light guide plate towards said diffusing film, the density of microlenses being higher in regions of said second surface immediately next to said coupling surface and situated to the right of the inter-diode spaces of said printed circuit and lower in regions of said second surface immediately next to said coupling surface and situated to the right of the light-emitting diodes, and in that said diffusing film alternatively comprises clear zones and darkened zones arranged respectively opposite said regions of said second surface of said light guide plate immediately next to said coupling surface and situated to the right of the inter-diode spaces and of said regions of said second surface immediately next to said coupling surface and situated to the right of the light-emitting diodes.
Vehicle headlamp, comprising at least one lighting device with - a carrier - at least one light-emitting diode, which is adjusted to the carrier by means of at least one dowel pin and is connected thereto, and - at least one optical element, which is adjusted to the carrier by means of at least one further dowel pin and is connected thereto, wherein - light-emitting diode and optical element are adjusted with respect to one another by means of the dowel pins (31, 32), and - the carrier serves as a heat sink for the heat generated during operation by the light-emitting diode, wherein the carrier has cooling fins on its surface facing away from the light-emitting diode. - a carrier - at least one light-emitting diode, which is adjusted to the carrier by means of at least one dowel pin and is connected thereto, and - at least one optical element, which is adjusted to the carrier by means of at least one further dowel pin and is connected thereto, wherein - light-emitting diode and optical element are adjusted with respect to one another by means of the dowel pins (31, 32), and - the carrier serves as a heat sink for the heat generated during operation by the light-emitting diode, wherein the carrier has cooling fins on its surface facing away from the light-emitting diode.
A secondary battery comprising: a case; an electrode assembly accommodated inside the case and having multi-tabs; and a cap plate closing the case and having electrode terminals electrically connected to the multi-tabs of the electrode assembly, wherein the surfaces of the multi-tabs are coated with insulating layers, wherein the electrode assembly comprises: a first electrode plate including a first current collector plate and a first electrically active material layer coated on the first current collector plate; a separator positioned at one side of the first electrode plate; and a second electrode plate including a second current collector plate positioned at one side of the separator and a second electrically active material layer coated on the second current collector plate, wherein the multi-tabs have a structure in which the first current collector plate is upwardly extended to an exterior side of the first electrically active material layer of the first electrode plate, characterized in that, the insulating layers are spaced apart from the first electrically active material layer. a case; an electrode assembly accommodated inside the case and having multi-tabs; and a cap plate closing the case and having electrode terminals electrically connected to the multi-tabs of the electrode assembly, wherein the surfaces of the multi-tabs are coated with insulating layers, wherein the electrode assembly comprises: a first electrode plate including a first current collector plate and a first electrically active material layer coated on the first current collector plate; a separator positioned at one side of the first electrode plate; and a second electrode plate including a second current collector plate positioned at one side of the separator and a second electrically active material layer coated on the second current collector plate, wherein the multi-tabs have a structure in which the first current collector plate is upwardly extended to an exterior side of the first electrically active material layer of the first electrode plate, characterized in that, the insulating layers are spaced apart from the first electrically active material layer. a first electrode plate including a first current collector plate and a first electrically active material layer coated on the first current collector plate; a separator positioned at one side of the first electrode plate; and a second electrode plate including a second current collector plate positioned at one side of the separator and a second electrically active material layer coated on the second current collector plate, wherein the multi-tabs have a structure in which the first current collector plate is upwardly extended to an exterior side of the first electrically active material layer of the first electrode plate, characterized in that, the insulating layers are spaced apart from the first electrically active material layer.
Method for producing a semiconductor substrate, including at least the implementation of the following steps: - producing a superficial layer arranged on a buried dielectric layer and including at least one strained semiconductor region; - producing an etching mask on the superficial layer, covering at least one part of said at least one strained semiconductor region; - etching the superficial layer according to a pattern of the etching mask, exposing at least one first lateral edge formed by at least one first strained semiconductor portion belonging to said part of said strained semiconductor region and which is in contact with the buried dielectric layer; - modifying the first strained semiconductor portion into at least one second portion of material forming a mechanical support element arranged against the strained semiconductor region; - removing the etching mask. - producing a superficial layer arranged on a buried dielectric layer and including at least one strained semiconductor region; - producing an etching mask on the superficial layer, covering at least one part of said at least one strained semiconductor region; - etching the superficial layer according to a pattern of the etching mask, exposing at least one first lateral edge formed by at least one first strained semiconductor portion belonging to said part of said strained semiconductor region and which is in contact with the buried dielectric layer; - modifying the first strained semiconductor portion into at least one second portion of material forming a mechanical support element arranged against the strained semiconductor region; - removing the etching mask.
A bootstrapped switch circuit coupled to a timing circuit that provides first, second, third and fourth clock signals (PHI1D, PHI2D, PHIC1, PHIC2), and having an input terminal and an output terminal, comprising: a switch (S1, S1a, S1b, T1a, T1b) having a first terminal coupled to the input terminal, a second terminal coupled to the output terminal, and a control terminal; a charge pump including a first capacitor, a second capacitor and a third capacitor, the charge pump being coupled by the first and second capacitors to the first and second clock signals, the charge pump being configured to generate an output voltage at a first terminal of the third capacitor, the third capacitor having a second terminal connected to the input terminal; fourth and fifth capacitors (C4, C5); and a logic circuit (101, 301, 401) coupled to the third and fourth clock signals and isolated from the timing control circuit via the fourth capacitor and the fifth capacitor, wherein the logic circuit is configured to provide and store a control signal to the control terminal of the switch that is derived from the output voltage of the charge pump. a switch (S1, S1a, S1b, T1a, T1b) having a first terminal coupled to the input terminal, a second terminal coupled to the output terminal, and a control terminal; a charge pump including a first capacitor, a second capacitor and a third capacitor, the charge pump being coupled by the first and second capacitors to the first and second clock signals, the charge pump being configured to generate an output voltage at a first terminal of the third capacitor, the third capacitor having a second terminal connected to the input terminal; fourth and fifth capacitors (C4, C5); and a logic circuit (101, 301, 401) coupled to the third and fourth clock signals and isolated from the timing control circuit via the fourth capacitor and the fifth capacitor, wherein the logic circuit is configured to provide and store a control signal to the control terminal of the switch that is derived from the output voltage of the charge pump.