mhurhangee/ep-ind-claims huggingface dataset:
A palm device for non-invasive collection of biomarkers in living beings, wherein the palm device has an anatomic body, comprising a lower part, a middle third and a convex surface, wherein the convex surface extends from the middle third up to a central opening concentric to a photoelectric sensor; the lower part defines a lower perimeter that is substantially square with rounded corners, and comprises four walls extending from the lower perimeter and positioned at an angle of 45°, one from the other, the walls converging to the middle third; a collection adapter, with medium-sized, circular-contoured hollow, is encased inside the central opening of the anatomic body, in which the collection adapter is configured for keeping a palm of a hand of a target individual, the hand supported on the device, at a distance between 5 and 10 mm of the photoelectric sensor; and wherein the collection adapter has on its upper surface juxtaposed concave grooves; a chamber of an optical system is formed by the photoelectric sensor mounted on a support, wherein the chamber also houses a set of LEDs whose beams of light are configured to pass through a lens preceding the medium-sized hollow of the collection adapter to return to the photoelectric sensor after having reached the palm of the hand of the target individual when the target individual puts his palm on the collection adapter; a printed circuit board fixed at the bottom of a support and positioned inside the anatomic body of the device below the chamber; a protection lid of the optical sensor covers the collection adapter and protects the photoelectric sensor on which the printed circuit board is configured to run an operational program to calibrate the device in a non-invasive manner before each collection using the protection lid attached to the collection adapter as an optical standard.
A vacuum insulated glass window unit comprising: a first substrate having a hole defined therein that receives a pump-out tube, the hole comprising a diameter in a range of from about 0,05 to 0,15 mm greater than an outer diameter of the pump-out tube, wherein a pump-out tube end that is inserted into the hole is substantially even with the interior surface of the first glass substrate, so that the pump-out tube end is left just short of the interior surface by a distance of up to 0.1 mm from the interior surface, wherein adhesive frit paste is applied to a lower portion of the pump-out tube that is inserted into the hole, and wherein the pump-out tube is sealed of by heating an end of the pump-out tube that is used to evacuate or purge the cavity to melt the opening and the cavity of the vacuum insulated glass window unit is sealed. a first substrate having a hole defined therein that receives a pump-out tube, the hole comprising a diameter in a range of from about 0,05 to 0,15 mm greater than an outer diameter of the pump-out tube, wherein a pump-out tube end that is inserted into the hole is substantially even with the interior surface of the first glass substrate, so that the pump-out tube end is left just short of the interior surface by a distance of up to 0.1 mm from the interior surface, wherein adhesive frit paste is applied to a lower portion of the pump-out tube that is inserted into the hole, and wherein the pump-out tube is sealed of by heating an end of the pump-out tube that is used to evacuate or purge the cavity to melt the opening and the cavity of the vacuum insulated glass window unit is sealed.
A method of forming a three-dimensional object using an extrusion-based layered deposition system, the method comprising: generating a build path for building a layer of the three-dimensional object, wherein the build path defines a void region; generating at least one raster path within the void region; determining void widths of the void region based on the at least one generated raster path and one or more successive raster legs that form the raster path; generating a remnant path of the build path having a road width that varies with the void widths of the void region in the build path to fill the void region located within the build path based at least in part on the at least one raster path (50, 210); and adjusting a deposition rate of the remnant path as the deposition rates are correlated to the void widths of the void region wherein a change in void widths between successive raster legs indicates varying the deposition rate from a first deposition rate to a second rate of build material at said raster legs to adequately fill the void region with build material. generating a build path for building a layer of the three-dimensional object, wherein the build path defines a void region; generating at least one raster path within the void region; determining void widths of the void region based on the at least one generated raster path and one or more successive raster legs that form the raster path; generating a remnant path of the build path having a road width that varies with the void widths of the void region in the build path to fill the void region located within the build path based at least in part on the at least one raster path (50, 210); and adjusting a deposition rate of the remnant path as the deposition rates are correlated to the void widths of the void region wherein a change in void widths between successive raster legs indicates varying the deposition rate from a first deposition rate to a second rate of build material at said raster legs to adequately fill the void region with build material.
A method performed by a transmitting device in a wireless communication system, the method comprising: obtaining, by a packet data convergence protocol, PDCP, layer (1g-10) from an upper layer (1g-05) performing a quality of service, QoS, flow mapping, a PDCP service data unit, SDU, the PDCP SDU comprising a header of the upper layer (1g-25) and data (1g-15, 1g-20), the header of the upper layer including a QoS flow identifier, ID; removing (1g-30), by the PDCP layer, at least one byte corresponding to the header of the upper layer from the PDCP SDU and performing, by the PDCP layer, a ciphering for the data except for the header of the upper layer, in case that the header of the upper layer is present in the PDCP SDU; and submitting (1g-45), by the PDCP layer to a lower layer, a PDCP protocol data unit, PDU, including a PDCP header, the header of the upper layer which is not ciphered, and a ciphered data. obtaining, by a packet data convergence protocol, PDCP, layer (1g-10) from an upper layer (1g-05) performing a quality of service, QoS, flow mapping, a PDCP service data unit, SDU, the PDCP SDU comprising a header of the upper layer (1g-25) and data (1g-15, 1g-20), the header of the upper layer including a QoS flow identifier, ID; removing (1g-30), by the PDCP layer, at least one byte corresponding to the header of the upper layer from the PDCP SDU and performing, by the PDCP layer, a ciphering for the data except for the header of the upper layer, in case that the header of the upper layer is present in the PDCP SDU; and submitting (1g-45), by the PDCP layer to a lower layer, a PDCP protocol data unit, PDU, including a PDCP header, the header of the upper layer which is not ciphered, and a ciphered data.
A production method for 2,5-bis(aminomethyl)furan, comprising: reacting 5-(halogenated methyl)furfural with hydrogen and an amine compound using a hydrogenation catalyst to obtain 2,5-bis(aminomethyl)furan, wherein the amine compound is ammonia or an amide represented by RCONH 2, where R represents a hydrogen atom or -C n H 2n+1 where n is an integer of 1 or more, and wherein the hydrogenation catalyst is a catalyst containing at least one type selected from the group consisting of Fe, Co, Ni, Cu, Ru, Rh, Pd, Ir, Pt, Re, and Os. reacting 5-(halogenated methyl)furfural with hydrogen and an amine compound using a hydrogenation catalyst to obtain 2,5-bis(aminomethyl)furan, wherein the amine compound is ammonia or an amide represented by RCONH 2, where R represents a hydrogen atom or -C n H 2n+1 where n is an integer of 1 or more, and wherein the hydrogenation catalyst is a catalyst containing at least one type selected from the group consisting of Fe, Co, Ni, Cu, Ru, Rh, Pd, Ir, Pt, Re, and Os.
Method for operating a dishwasher as a domestic dishwasher and/or industrial dishwasher, but not as a flight-type dishwasher, for cleaning dishes by machine, said method comprising the following steps: A) metering a strongly alkaline solution having a pH greater than pH = 12 into a wash liquor, wherein the concentration of metered alkaline solution in the wash liquor is 1 to 2 g/l for a water hardness of less than or equal to 14°dH in order to dissolve dirt on the dishes, and B) metering a hydrogen peroxide-containing solution into the wash liquor, wherein the metering of a hydrogen peroxide-containing solution into the wash liquor starts 40 seconds to two minutes later than the metering of the strongly alkaline solution into the wash liquor, and the metering takes place by controlling a first pump, for metering the strongly alkaline solution, and a second pump, for metering the oxidizing agent-containing solution. A) metering a strongly alkaline solution having a pH greater than pH = 12 into a wash liquor, wherein the concentration of metered alkaline solution in the wash liquor is 1 to 2 g/l for a water hardness of less than or equal to 14°dH in order to dissolve dirt on the dishes, and B) metering a hydrogen peroxide-containing solution into the wash liquor, wherein the metering of a hydrogen peroxide-containing solution into the wash liquor starts 40 seconds to two minutes later than the metering of the strongly alkaline solution into the wash liquor, and the metering takes place by controlling a first pump, for metering the strongly alkaline solution, and a second pump, for metering the oxidizing agent-containing solution.
An apparatus for forming a coil for a dynamoelectric machine, comprising separable tool halves (502, 504) that when mated together, define a winding cavity therebetween;wherein the tool halves include a male tool half and a female tool half, the male tool half having a projection with a surface, the female tool half having a concave surface defining a concavity into which the projection of the male tool half extends when the male and female tool halves (502, 504) are mated together, the surface of the projection of the male tool half and the concave surface of the female tool half defining the winding cavity therebetween; characterised in that the surface of the projection of the male tool half is arcuate.
A separator for an electrochemical element that comprises fibers for retaining an electrolyte and that is interposed between a pair of electrodes, characterized in that the content of fibers with 0.03 to 0.50 μm in diameter is 90% by mass or more, the proportion of the number of fibers with 0.05 mm or more to less than 0.20 mm in length is 20 to 30%, and the proportion of the number of fibers with 0.20 mm or more to less than 5.00 mm in length is 70 to 80%, and wherein the separator is composed of 80% by mass or more of para-aramid fibers,
A semiconductor structure (20,30,50,70,90), comprising: a polycrystalline, non-crystalline or amorphous substrate (22,32,52,72,92); and at least one polycrystalline group III-nitride layer (28,38) formed over the substrate, (22,32,52,72,92) and characterised by a group III-nitride wetting layer (24,34) formed between the substrate (22,32,52,72,92) and the at least one polycrystalline group-III nitride layer (28,38), the wetting layer (24,34) being a monolayer of group-III nitride material formed on the substrate (22,32,52,72,92). a polycrystalline, non-crystalline or amorphous substrate (22,32,52,72,92); and at least one polycrystalline group III-nitride layer (28,38) formed over the substrate, (22,32,52,72,92) and characterised by a group III-nitride wetting layer (24,34) formed between the substrate (22,32,52,72,92) and the at least one polycrystalline group-III nitride layer (28,38), the wetting layer (24,34) being a monolayer of group-III nitride material formed on the substrate (22,32,52,72,92).
Plastic strand pelletiser for pelletising plastic strands, comprising: - a cutting rotor which is rotatable about an axis of rotation, - a blade bar arranged relative to the cutting rotor such that the blade bar and the cutting rotor together form a cutting gap for pelletising plastic strands fed to the plastic strand pelletiser, and - an adjustment mechanism for adjusting the cutting gap by shifting a position of the blade bar relative to the cutting rotor, characterised in that the adjustment mechanism comprises at least one actuator having a differential thread with reducing transmission ratio, by means of which the position of the blade bar is adjustable, wherein the adjustment mechanism has a pivot axis about which the blade bar is pivotably mounted, and a pivot position of the blade bar is adjustable by means of the at least one actuator. - a cutting rotor which is rotatable about an axis of rotation, - a blade bar arranged relative to the cutting rotor such that the blade bar and the cutting rotor together form a cutting gap for pelletising plastic strands fed to the plastic strand pelletiser, and - an adjustment mechanism for adjusting the cutting gap by shifting a position of the blade bar relative to the cutting rotor, characterised in that the adjustment mechanism comprises at least one actuator having a differential thread with reducing transmission ratio, by means of which the position of the blade bar is adjustable, wherein the adjustment mechanism has a pivot axis about which the blade bar is pivotably mounted, and a pivot position of the blade bar is adjustable by means of the at least one actuator. characterised in that the adjustment mechanism comprises at least one actuator having a differential thread with reducing transmission ratio, by means of which the position of the blade bar is adjustable, wherein the adjustment mechanism has a pivot axis about which the blade bar is pivotably mounted, and a pivot position of the blade bar is adjustable by means of the at least one actuator.
An apparatus for preventing mal-operation for an automatic transmission, comprising: a stopper which restricts a pawl provided in a gear lever from moving to a lower gear when shifting the gear lever from P or R to D; and a body having a stopper support to support other side surface of the stopper which restricts the pawl from moving to a lower gear when shifting the gear lever from P or R to D; the apparatus being characterised by further comprising: a stopper neck which is elastic and connects the stopper to the body; and a body spring protruding from bottom of the body to elastically support the body moving down as the pawl presses down an upper part of the stopper, when shifting the gear lever from D to a lower gear, wherein the stopper, the stopper neck, the body, the stopper support and the body spring are integrally formed. a stopper which restricts a pawl provided in a gear lever from moving to a lower gear when shifting the gear lever from P or R to D; and a body having a stopper support to support other side surface of the stopper which restricts the pawl from moving to a lower gear when shifting the gear lever from P or R to D; a stopper neck which is elastic and connects the stopper to the body; and a body spring protruding from bottom of the body to elastically support the body moving down as the pawl presses down an upper part of the stopper, when shifting the gear lever from D to a lower gear, wherein the stopper, the stopper neck, the body, the stopper support and the body spring are integrally formed.
A system for monitoring a water level within a pipe, comprising: an ultrasonic generation unit comprising two or more ultrasonic transducers (111-1, 111-2, 111-3) which are disposed at spaced locations on an outside of the pipe and generate ultrasonic waves, and a support unit which supports the ultrasonic transducers so that the transducers fixedly come into contact with the outside of the pipe; an ultrasonic examination unit which controls the generation of the ultrasonic waves by driving the ultrasonic transducers, detects a reflected wave of the ultrasonic wave, collects information about the reflected wave, and inputs/outputs the information; characterized in that the system further comprises: a solid contact medium which is provided on one side of the ultrasonic transducers and brings the ultrasonic transducers into contact with the outside of the pipe, and wherein the ultrasonic transducers are arranged to receive the ultrasonic waves reflected by a metal layer on the opposite side of the pipe, and a data processing unit which determines a water level based on the information whether the ultrasonic waves are reflected back to the transducers where the ultrasonic waves are generated and processes or stores the information about the water level. an ultrasonic generation unit comprising two or more ultrasonic transducers (111-1, 111-2, 111-3) which are disposed at spaced locations on an outside of the pipe and generate ultrasonic waves, and a support unit which supports the ultrasonic transducers so that the transducers fixedly come into contact with the outside of the pipe; an ultrasonic examination unit which controls the generation of the ultrasonic waves by driving the ultrasonic transducers, detects a reflected wave of the ultrasonic wave, collects information about the reflected wave, and inputs/outputs the information; characterized in that the system further comprises: a solid contact medium which is provided on one side of the ultrasonic transducers and brings the ultrasonic transducers into contact with the outside of the pipe, and wherein the ultrasonic transducers are arranged to receive the ultrasonic waves reflected by a metal layer on the opposite side of the pipe, and a data processing unit which determines a water level based on the information whether the ultrasonic waves are reflected back to the transducers where the ultrasonic waves are generated and processes or stores the information about the water level.
A removable self-centring magnetically-clampable food-inspection pipe apparatus comprising: a food-inspection pipe with a through-bore having a tubular pipe body through which the through-bore passes, and a first connector part at each end of the pipe body which define first seating surfaces; and complementary second connector parts which each define second seating surfaces and on which each first connector part is respectively slidably demountably seatable, one of the first and/or second connector parts (18, 22) having at least in part a magnetically-attractable material, and the other of the corresponding first and/or second connector parts (18, 22) having a plurality of magnetic elements equi-angularly spaced about a bore axis of the pipe body, poles of consecutive magnetic elements being opposite to each other, so that, as the food-inspection pipe is introduced laterally to the bore axis, the first and second connector parts (18, 22) slidably engage and self-centre the food-inspection pipe. a food-inspection pipe with a through-bore having a tubular pipe body through which the through-bore passes, and a first connector part at each end of the pipe body which define first seating surfaces; and a tubular pipe body through which the through-bore passes, and a first connector part at each end of the pipe body which define first seating surfaces; and complementary second connector parts which each define second seating surfaces and on which each first connector part is respectively slidably demountably seatable, one of the first and/or second connector parts (18, 22) having at least in part a magnetically-attractable material, and the other of the corresponding first and/or second connector parts (18, 22) having a plurality of magnetic elements equi-angularly spaced about a bore axis of the pipe body, poles of consecutive magnetic elements being opposite to each other, so that, as the food-inspection pipe is introduced laterally to the bore axis, the first and second connector parts (18, 22) slidably engage and self-centre the food-inspection pipe.
A swing system for a construction machinery or a vehicle, comprising a swing brake for blocking or unblocking a rotational movement of a first portion of the construction machinery or the vehicle relative to a chassis portion of the construction machinery or the vehicle, and further comprising a swing pump and a swing motor provided for performing the rotational movement, wherein the swing pump can be positioned in a neutral position where no rotational movement of the first portion takes place, wherein at least one brake control actuator (34, 42) is provided for automatically engaging the swing brake when the swing pump is positioned in its neutral position, characterized in that a first sensor is coupled to the swing pump for detecting the neutral position of the swing pump, wherein the first sensor is an angle sensor for determining a position of a swash plate of the swing pump.
A blended thermoplastic composition comprising: a) from 50 wt% to 80 wt% of a polycarbonate component; b) from greater than 0 wt% to 12 wt% of an impact modifier component; c) from 10 wt% to 40 wt% of a filler; d) from 5 wt% to 15 wt% of a flame retardant component comprising an oligomeric phosphate ester, wherein the oligomeric phosphate ester is a free flowing powder at 23 °C; and e) from 1 wt% to 10 wt%, based on the total weight of the composition, of a second flame retardant component that is a phosphate ester that is a liquid at 23 °C, wherein the combined weight percent value of all components does not exceed 100 wt%; and wherein all weight percent values are based on the total weight of the composition. a) from 50 wt% to 80 wt% of a polycarbonate component; b) from greater than 0 wt% to 12 wt% of an impact modifier component; c) from 10 wt% to 40 wt% of a filler; d) from 5 wt% to 15 wt% of a flame retardant component comprising an oligomeric phosphate ester, wherein the oligomeric phosphate ester is a free flowing powder at 23 °C; and e) from 1 wt% to 10 wt%, based on the total weight of the composition, of a second flame retardant component that is a phosphate ester that is a liquid at 23 °C, wherein the combined weight percent value of all components does not exceed 100 wt%; and wherein all weight percent values are based on the total weight of the composition.
Value or security product, formed by a product body with two outer sides, wherein the value or security product comprises at least one non-individualising security imprint as well as at least one individualising security feature, wherein the at least one non-individualising security imprint and the at least one individualising security feature are printed at least onto one of the outer sides of the product body, overlapping in the same printing plane, and wherein at least one of the outer sides of the value or security product is overlaid with a protective layer, characterised in that the protective layer is structured.
A photovoltaic nanocomposite comprising a film of solution processed semiconductor materials comprising a n-type material selected from n-type quantum dots and n-type nanocrystals, and a p-type material selected from p-type quantum dots and p-type nanocrystals, wherein the n-type material has a conduction band level at least equal, compared to vacuum level, to that of the p-type material, the p-type material has a valence band at the most equal, compared to vacuum level, to that of the n-type material. at least a portion of the n-type material and at least a portion of the p-type material are present in a bulk nano-heterojunction binary nanocomposite layer comprising a blend of the n-type material and the p-type material;