mhurhangee/ep-ind-claims huggingface dataset:
A display device comprising: a touch sensitive element including an electroactive layer and a plurality of electrodes (131, 132) disposed on at least one of a top surface and a bottom surface of the electroactive layer, wherein the touch sensitive element is configured to transfer tactile feedback to a user in response to the user touching the touch sensitive element; a shielding layer on the touch sensitive element; a display panel on the shielding layer; and a touch sensor integrated in the display panel and including a plurality of first touch electrodes and a plurality of second touch electrodes, wherein the plurality of second touch electrodes are spaced apart from the plurality of first touch electrodes, wherein the shielding layer is electrically connected with the plurality of first touch electrodes or the plurality of second touch electrodes, wherein the shielding layer includes a transparent conductive layer made of a transparent conductive material for removing noise generated by the touch sensitive element. a touch sensitive element including an electroactive layer and a plurality of electrodes (131, 132) disposed on at least one of a top surface and a bottom surface of the electroactive layer, wherein the touch sensitive element is configured to transfer tactile feedback to a user in response to the user touching the touch sensitive element; a shielding layer on the touch sensitive element; a display panel on the shielding layer; and a touch sensor integrated in the display panel and including a plurality of first touch electrodes and a plurality of second touch electrodes, wherein the plurality of second touch electrodes are spaced apart from the plurality of first touch electrodes, wherein the shielding layer is electrically connected with the plurality of first touch electrodes or the plurality of second touch electrodes, wherein the shielding layer includes a transparent conductive layer made of a transparent conductive material for removing noise generated by the touch sensitive element.
A smart screw (1, 2, 3) comprising: a main screw body configured to penetrate an artificial joint including a shell disposed on a hip joint of an object and a liner disposed on an inner surface of the shell to be inserted into the hip joint; a transducer including a matching layer configured to detect a sound wave signal reflected from the liner, a piezoelectric layer formed to have a preset frequency of the sound wave signal, and a backing layer configured to absorb the sound wave signal; and a processing module; characterised in that the processing module is configured to generate the sound wave signal towards the liner, receive the sound wave signal detected by the matching layer, measure a thickness of the liner based on the received sound wave signal, and transfer data of the measured thickness of the liner to an outside of the smart screw. a main screw body configured to penetrate an artificial joint including a shell disposed on a hip joint of an object and a liner disposed on an inner surface of the shell to be inserted into the hip joint; a transducer including a matching layer configured to detect a sound wave signal reflected from the liner, a piezoelectric layer formed to have a preset frequency of the sound wave signal, and a backing layer configured to absorb the sound wave signal; and a processing module; characterised in that the processing module is configured to generate the sound wave signal towards the liner, receive the sound wave signal detected by the matching layer, measure a thickness of the liner based on the received sound wave signal, and transfer data of the measured thickness of the liner to an outside of the smart screw.
A method for emergency ventilating and pressurizing an aircraft cabin, having the steps: - determining a cabin pressure (p c) prevailing within the aircraft cabin, - determining an ambient pressure (p a) prevailing in an aircraft environment, - initiating descent of the aircraft, when the cabin pressure (p c) falls below a predetermined threshold value (p 1), - initiating a supply of ambient air from the aircraft environment into the aircraft cabin, when, during descent of the aircraft, a differential pressure (Δp) between the cabin pressure (p c) and the ambient pressure (p a) falls below a first calculated threshold value (Δp 1), and - controlling the supply of ambient air from the aircraft environment into the aircraft cabin and an operation of an air outflow valve of a cabin pressurisation system of the aircraft such that a flow (f) of ambient air from the aircraft environment into the aircraft cabin corresponds to at least a predetermined minimum value (f min) and the differential pressure (Δp) between the cabin pressure (p c) and the ambient pressure (p a) does not fall below a second calculated threshold value (Δp 2). - determining a cabin pressure (p c) prevailing within the aircraft cabin, - determining an ambient pressure (p a) prevailing in an aircraft environment, - initiating descent of the aircraft, when the cabin pressure (p c) falls below a predetermined threshold value (p 1), - initiating a supply of ambient air from the aircraft environment into the aircraft cabin, when, during descent of the aircraft, a differential pressure (Δp) between the cabin pressure (p c) and the ambient pressure (p a) falls below a first calculated threshold value (Δp 1), and - controlling the supply of ambient air from the aircraft environment into the aircraft cabin and an operation of an air outflow valve of a cabin pressurisation system of the aircraft such that a flow (f) of ambient air from the aircraft environment into the aircraft cabin corresponds to at least a predetermined minimum value (f min) and the differential pressure (Δp) between the cabin pressure (p c) and the ambient pressure (p a) does not fall below a second calculated threshold value (Δp 2).
A solar cell module, comprising: a solar cell panel; a terminal box installed on a rear surface side of the solar cell panel; and a frame attached to an outer edge of the solar cell panel and having a recess part (42C; 42Cx; 42Cy) into which the solar cell panel is fitted and a flange part (46; 46u; 46w; 46v) which is arranged above a light-receiving surface of the solar cell panel and formed integrally with the recess part (42C; 42Cx; 42Cy); characterized in that the flange part (46; 46u; 46w; 46v) projects from the recess part (42C; 42Cx; 42Cy) covering an entire portion of a light-receiving surface of the panel, the portion being located above the terminal box, and that a part of the solar cell panel is fitted between the flange part (46; 46u; 46w; 46v) and the terminal box, and another part of the solar cell panel is fitted into the recess part (42C; 42Cx; 42Cy). a solar cell panel; a terminal box installed on a rear surface side of the solar cell panel; and a frame attached to an outer edge of the solar cell panel and having a recess part (42C; 42Cx; 42Cy) into which the solar cell panel is fitted and a flange part (46; 46u; 46w; 46v) which is arranged above a light-receiving surface of the solar cell panel and formed integrally with the recess part (42C; 42Cx; 42Cy); characterized in that the flange part (46; 46u; 46w; 46v) projects from the recess part (42C; 42Cx; 42Cy) covering an entire portion of a light-receiving surface of the panel, the portion being located above the terminal box, and that a part of the solar cell panel is fitted between the flange part (46; 46u; 46w; 46v) and the terminal box, and another part of the solar cell panel is fitted into the recess part (42C; 42Cx; 42Cy).
A method of terminating a cable with a coaxial cable connector, comprising the steps of: providing a cable comprising an inner conductor, an outer conductor, and an outer jacket formed of dielectric material; preparing a termination end of the cable by, removing an end portion of the outer jacket at the termination end of the cable to expose a portion of the outer conductor commensurate with the end portion removed from the outer jacket, characterized by the further steps forming one or more lateral slits in a predetermined portion of the outer jacket and in the outer conductor, at the termination end of the cable, and folding back the exposed portion of the outer conductor to provide a post lead-in at the termination end of the cable; and installing the coaxial connector onto the termination end of the cable by inserting a post end of the coaxial connector into the post lead-in of the outer conductor, thereby electrically connecting the outer conductor of the cable and the post end of the coaxial connector. providing a cable comprising an inner conductor, an outer conductor, and an outer jacket formed of dielectric material; preparing a termination end of the cable by, removing an end portion of the outer jacket at the termination end of the cable to expose a portion of the outer conductor commensurate with the end portion removed from the outer jacket, characterized by the further steps forming one or more lateral slits in a predetermined portion of the outer jacket and in the outer conductor, at the termination end of the cable, and folding back the exposed portion of the outer conductor to provide a post lead-in at the termination end of the cable; and removing an end portion of the outer jacket at the termination end of the cable to expose a portion of the outer conductor commensurate with the end portion removed from the outer jacket, characterized by the further steps forming one or more lateral slits in a predetermined portion of the outer jacket and in the outer conductor, at the termination end of the cable, and folding back the exposed portion of the outer conductor to provide a post lead-in at the termination end of the cable; and installing the coaxial connector onto the termination end of the cable by inserting a post end of the coaxial connector into the post lead-in of the outer conductor, thereby electrically connecting the outer conductor of the cable and the post end of the coaxial connector.
A method of manufacturing an emissive LED display device, comprising the steps of: a) forming a plurality of chips (200; 300), each comprising at least one LED and, on a connection surface of the chip, a plurality of hydrophilic electric connection areas (125, 126, 127, 128) and a hydrophobic area, each electric connection area of the chip being surrounded and separated from the other electric connection areas of the chip by the hydrophobic area; b) forming a transfer substrate (250; 350) comprising, for each chip (200; 300), on a connection surface of the transfer substrate, a plurality of hydrophilic electric connection areas (155, 156, 157, 158) intended to be respectively connected to the electric connection areas of the chip, and a hydrophobic area, each electric connection area of the transfer substrate being surrounded and separated from the other electric connection areas of the transfer substrate by the hydrophobic area; c) arranging a drop of a liquid on each electric connection area of the transfer substrate (250; 350) and/or on each electric connection area of each chip (200; 300); and d) affixing the chips (200; 300) to the transfer substrate (250; 350) by direct bonding to electrically connect the electric connection areas of each chip to the corresponding electric connection areas of the transfer substrate, using the capillary restoring force of the drops to align the electric connection areas of the chips (200; 300) with the corresponding electric connection areas of the transfer substrate (250; 350). a) forming a plurality of chips (200; 300), each comprising at least one LED and, on a connection surface of the chip, a plurality of hydrophilic electric connection areas (125, 126, 127, 128) and a hydrophobic area, each electric connection area of the chip being surrounded and separated from the other electric connection areas of the chip by the hydrophobic area; b) forming a transfer substrate (250; 350) comprising, for each chip (200; 300), on a connection surface of the transfer substrate, a plurality of hydrophilic electric connection areas (155, 156, 157, 158) intended to be respectively connected to the electric connection areas of the chip, and a hydrophobic area, each electric connection area of the transfer substrate being surrounded and separated from the other electric connection areas of the transfer substrate by the hydrophobic area; c) arranging a drop of a liquid on each electric connection area of the transfer substrate (250; 350) and/or on each electric connection area of each chip (200; 300); and d) affixing the chips (200; 300) to the transfer substrate (250; 350) by direct bonding to electrically connect the electric connection areas of each chip to the corresponding electric connection areas of the transfer substrate, using the capillary restoring force of the drops to align the electric connection areas of the chips (200; 300) with the corresponding electric connection areas of the transfer substrate (250; 350).
A calibration apparatus for calibrating characteristics of a power amplifier, PA, in a transmitter comprising: an adaptive bias generator circuit, arranged to track an envelope of an input signal received by control terminals of transistors of the PA and generate an adaptive bias voltage to the control terminals of the input transistors in response to the envelope of the input signal; and the calibration apparatus further comprising: a direct current, DC, detector circuit, arranged to monitor a DC level associated with an output signal of the PA, and generate a feedback DC signal indicative of the DC level; and a processing circuit, arranged to compare the feedback DC signal with a predetermined threshold to generate a comparison result, and selectively pause a digital pre-distortion, DPD, calibration program when the comparison result indicates that the output signal of the PA is above a predetermined power level in order to avoid damage to the PA. an adaptive bias generator circuit, arranged to track an envelope of an input signal received by control terminals of transistors of the PA and generate an adaptive bias voltage to the control terminals of the input transistors in response to the envelope of the input signal; and the calibration apparatus further comprising: a direct current, DC, detector circuit, arranged to monitor a DC level associated with an output signal of the PA, and generate a feedback DC signal indicative of the DC level; and a processing circuit, arranged to compare the feedback DC signal with a predetermined threshold to generate a comparison result, and selectively pause a digital pre-distortion, DPD, calibration program when the comparison result indicates that the output signal of the PA is above a predetermined power level in order to avoid damage to the PA. a direct current, DC, detector circuit, arranged to monitor a DC level associated with an output signal of the PA, and generate a feedback DC signal indicative of the DC level; and a processing circuit, arranged to compare the feedback DC signal with a predetermined threshold to generate a comparison result, and selectively pause a digital pre-distortion, DPD, calibration program when the comparison result indicates that the output signal of the PA is above a predetermined power level in order to avoid damage to the PA.
A urine bottle formed from sheet material, the urine bottle comprising an enclosing wall and an aperture and being expandable from a first, collapsed configuration into a second, expanded configuration, the sheet material having a plurality of fold lines (44, 46, 48, 50, 52, 56, 58) which define a plurality of recesses (60, 62) in the enclosing wall of the urine bottle in the expanded configuration, wherein in the collapsed condition the urine bottle comprises a lower leaf and an upper leaf overlying the lower leaf, the upper and lower leaves being joined together along their lateral edges (34, 36) and along a first, end edge extending between a first end of each of the lateral edges (34, 36), the lateral edges (34, 36) tapering towards each other from a respective end of the said end edge to the said aperture and the aperture extending between the second, opposite ends of the lateral edges, and wherein each of the lateral edges (30, 36) extends across a respective one of said plurality of recesses (60, 62).
Colorimetric device for detecting, in an aqueous solution of interest, a hydrolytic enzymatic activity with regard to at least one polymer of interest, which device is characterized in that it comprises (i) a substrate delimited at least by an upper surface (2 a), and (ii) a transparent detection layer, having a first thickness e and including the said polymer of interest, which transparent detection layer includes on the one hand, an upper surface (3 a), to which it is intended to apply the said aqueous solution of interest and forming an initial interface between the air and the detection layer, and on the other hand, a lower surface (3 b), formed on the said upper surface (2 a) of substrate and together forming a second interface between the detection layer and the substrate, which upper surface of the transparent detection layer is free, not covered in any way by an additional layer, which first interface and which second interface are apt to generate an optical reflection phenomenon, which detection layer is adapted so that, on the one hand, after application of the said aqueous solution of interest, when it is deprived of the said hydrolytic enzymatic activity, it preserves the said first thickness e, and on the other hand, after the application of the said aqueous solution of interest, when it includes the said hydrolytic enzymatic activity, it has a second thickness e', thinner than the said first thickness e, and wherein the said first thickness e and/or the said second thickness e' of the said detection layer are adapted to generate a colour by an optical interference phenomenon caused by the recombining of the light beams reflected at the said first interface and at the said second interface.
A device for measuring target particles in a sample, comprising: a cartridge device, wherein the cartridge device comprises: an inlet configured for receiving the sample into the cartridge device; a fluidic structure fluidly connected to the inlet and configured for mixing at least a portion of the sample with at least a portion of a reagent to form one or more sample mixtures; a flow cell fluidly connected to the fluidic structure and configured for forming one or more sample streams from the one or more sample mixtures, wherein the flow cell has a fluidic channel having a core diameter chosen according to the sample stream diameter and the flow cell contains only the sample stream for analysis without a sheath flow, and wherein the flow cell comprises an optically transparent area configured for measuring an optical signal ( A, T) from the sample streams to detect the target particles in the sample; and a flow sensor fluidly connected to the flow cell and configured for measuring a sensing signal ( T 1, T 2) from the sample streams that enter the flow sensor; wherein the fluidic structure comprises at least one basic fluidic unit that comprises: a chamber configured to accommodate a fluid; a venting port connected to the chamber, wherein the venting port is connected to a pneumatic pressure source pumping the sample from the chamber into the flow cell and into the flow sensor; a microfluidic channel connected to the chamber; and a valve on the microfluidic channel. an inlet configured for receiving the sample into the cartridge device; a fluidic structure fluidly connected to the inlet and configured for mixing at least a portion of the sample with at least a portion of a reagent to form one or more sample mixtures; a flow cell fluidly connected to the fluidic structure and configured for forming one or more sample streams from the one or more sample mixtures, wherein the flow cell has a fluidic channel having a core diameter chosen according to the sample stream diameter and the flow cell contains only the sample stream for analysis without a sheath flow, and wherein the flow cell comprises an optically transparent area configured for measuring an optical signal ( A, T) from the sample streams to detect the target particles in the sample; and a flow sensor fluidly connected to the flow cell and configured for measuring a sensing signal ( T 1, T 2) from the sample streams that enter the flow sensor; wherein the fluidic structure comprises at least one basic fluidic unit that comprises: a chamber configured to accommodate a fluid; a venting port connected to the chamber, wherein the venting port is connected to a pneumatic pressure source pumping the sample from the chamber into the flow cell and into the flow sensor; a microfluidic channel connected to the chamber; and a valve on the microfluidic channel. a chamber configured to accommodate a fluid; a venting port connected to the chamber, wherein the venting port is connected to a pneumatic pressure source pumping the sample from the chamber into the flow cell and into the flow sensor; a microfluidic channel connected to the chamber; and a valve on the microfluidic channel.
Magnetically separable particles each comprising a plurality of nanoparticles having reversible magnetic properties and a matrix having an inorganic content of between 70 and 100% by weight based on the matrix weight, the inorganic content of the matrix consisting of 80 to 100% by weight of SiO 2, characterised in that a.the particles have an average diameter in at least one direction of at least 5 μm, b.the particles have a surface area (according to BET measurement) of at least 10 m 2 /g and a (cumulative) pore volume of less than 0.195 cm 3 /g (ml/g), c.a loss of material from the nanoparticles having reversible magnetic properties is less than 2% by weight when the magnetically separable particles are stirred for 12 hours in acidic and alkaline solutions having a pH of 1 or 12. a.the particles have an average diameter in at least one direction of at least 5 μm, b.the particles have a surface area (according to BET measurement) of at least 10 m 2 /g and a (cumulative) pore volume of less than 0.195 cm 3 /g (ml/g), c.a loss of material from the nanoparticles having reversible magnetic properties is less than 2% by weight when the magnetically separable particles are stirred for 12 hours in acidic and alkaline solutions having a pH of 1 or 12.
Autofrettage process, in which a thick-walled workpiece which is to be subjected to autofrettage is positioned in an autofrettage apparatus, the inner cavity of the workpiece being filled with a fluid and sealed off in pressuretight manner, characterised in that the space available for the fluid in the inner cavity is reduced by at least one displacement ram which is moved through a displacement ram opening of the workpiece into the inner cavity of the workpiece, the internal diameter of the workpiece being greater than the external diameter of the displacement ram.