mhurhangee/ep-ind-claims huggingface dataset:
An electrode for non-invasive measurement of biological electrical signals, the electrode comprising a polymeric composition adapted to come into contact with a living tissue, the polymeric composition comprising a polymer matrix in which carbon nanotubes and adsorbing elements selected from activated charcoal particles and graphene nanoplatelets are dispersed.
A battery module, comprising: - a housing comprising a lid; - a battery cell disposed in the housing and comprising a battery cell terminal and a battery cell vent, wherein the battery cell terminal and the battery cell vent are on an end of the battery cell, and the battery cell vent is configured to exhaust battery cell effluent into the housing; - a printed circuit board disposed in the housing, wherein the printed circuit board is positioned in an immediate vent direction of the battery cell effluent; - a vent shield channel positioned between the battery cell vent and the printed circuit board along the immediate vent direction of the battery cell effluent, wherein the printed circuit board is integrated with the vent shield channel and the vent shield channel is configured to block the battery cell effluent from contacting the printed circuit board and to redirect the battery cell effluent along a desired vent path (68, 160; and - a module vent fluidly coupled to the desired vent path (68, 160) and configured to direct the battery cell effluent out of the battery module, wherein the vent shield channel forms a sealed chamber between the battery cell vent and the vent shield channel. - a housing comprising a lid; - a battery cell disposed in the housing and comprising a battery cell terminal and a battery cell vent, wherein the battery cell terminal and the battery cell vent are on an end of the battery cell, and the battery cell vent is configured to exhaust battery cell effluent into the housing; - a printed circuit board disposed in the housing, wherein the printed circuit board is positioned in an immediate vent direction of the battery cell effluent; - a vent shield channel positioned between the battery cell vent and the printed circuit board along the immediate vent direction of the battery cell effluent, wherein the printed circuit board is integrated with the vent shield channel and the vent shield channel is configured to block the battery cell effluent from contacting the printed circuit board and to redirect the battery cell effluent along a desired vent path (68, 160; and - a module vent fluidly coupled to the desired vent path (68, 160) and configured to direct the battery cell effluent out of the battery module,
A method of forming fused quartz glass, the method comprising the steps of: (a) providing a tubular starting body made of fused quartz glass, the tubular starting body having a first open end, an opposing second end, and a sidewall extending between the first and second ends and surrounding an interior cavity; (b) positioning the tubular starting body on a base plate; (c) inserting a first insert device into the interior cavity of the tubular starting body to form an assembled structure, said first insert device includes a first, upper support plate, a second, lower support plate spaced apart from the first support plate, and one or more spacers extending therebetween such that opposing lateral sides (40a; 42a; 40b; 42b) of each of the plates (40; 42) contacts the interior surface of the tubular starting body at different positions along a circumference thereof; (d) heating the assembled structure to a predetermined temperature at which the fused quartz glass has a viscosity in a range of 10 8 to 10 11 dPa·s; and (e) deforming the fused quartz glass of the tubular starting body at the predetermined temperature or in the viscosity range of 10 8 to 10 11 dPa.s around the first insert device to change a shape of the tubular starting body by plastic deformation. (a) providing a tubular starting body made of fused quartz glass, the tubular starting body having a first open end, an opposing second end, and a sidewall extending between the first and second ends and surrounding an interior cavity; (b) positioning the tubular starting body on a base plate; (c) inserting a first insert device into the interior cavity of the tubular starting body to form an assembled structure, said first insert device includes a first, upper support plate, a second, lower support plate spaced apart from the first support plate, and one or more spacers extending therebetween such that opposing lateral sides (40a; 42a; 40b; 42b) of each of the plates (40; 42) contacts the interior surface of the tubular starting body at different positions along a circumference thereof; (d) heating the assembled structure to a predetermined temperature at which the fused quartz glass has a viscosity in a range of 10 8 to 10 11 dPa·s; and (e) deforming the fused quartz glass of the tubular starting body at the predetermined temperature or in the viscosity range of 10 8 to 10 11 dPa.s around the first insert device to change a shape of the tubular starting body by plastic deformation.
A sheet manufacturing apparatus configured to make a sheet from defibrated paper material, comprising: a drum unit having a cylinder with a defibrated material storage space inside and multiple openings through which the defibrated material passes formed in the outside of the cylinder; an accumulator configured to accumulate the defibrated material that has passed the openings, forming a deposit; and a housing configured to enclose the drum unit and having a bottom which is open to the accumulator, the accumulator being disposed below the drum unit, the housing further having a vent through which air passes between the drum unit and the accumulator, characterized in that the sheet manufacturing apparatus further comprises: an adjustment device configured to adjust a size of the vent. a drum unit having a cylinder with a defibrated material storage space inside and multiple openings through which the defibrated material passes formed in the outside of the cylinder; an accumulator configured to accumulate the defibrated material that has passed the openings, forming a deposit; and a housing configured to enclose the drum unit and having a bottom which is open to the accumulator, the accumulator being disposed below the drum unit, the housing further having a vent through which air passes between the drum unit and the accumulator, characterized in that the sheet manufacturing apparatus further comprises: an adjustment device configured to adjust a size of the vent.
Mold bottom intended for a mold for manufacturing containers by blow-molding or stretch-blow-molding from blanks made of plastics material, this mold bottom extending about a central axis and comprising: - a molding wall, which is formed as a single block and defines a molding surface; - a cavity formed on the inside of the molding wall, this cavity having a central zone situated in the vicinity of the central axis of the mold bottom, a peripheral zone, situated at a distance from the central axis, and an intermediate median zone between the central zone and the peripheral zone; - a central duct for feeding heat transfer fluid to the cavity, which leads into the central zone through one or more central opening(s); - at least one duct for evacuating the heat transfer fluid from the cavity, into which the peripheral zone leads; this mold bottom being characterized in that it comprises a bypass, which places the central duct in direct communication with the median zone of the cavity, bypassing the central zone. - a molding wall, which is formed as a single block and defines a molding surface; - a cavity formed on the inside of the molding wall, this cavity having a central zone situated in the vicinity of the central axis of the mold bottom, a peripheral zone, situated at a distance from the central axis, and an intermediate median zone between the central zone and the peripheral zone; - a central duct for feeding heat transfer fluid to the cavity, which leads into the central zone through one or more central opening(s); - at least one duct for evacuating the heat transfer fluid from the cavity, into which the peripheral zone leads;
Switch for a seatbelt buckle with dustproof and/or water-protected design for restraint systems of motor vehicles. This switch indicates that the belt tongue is inserted into the seatbelt buckle and that it is properly locked, and is provided with a fixed contact and a contact spring. These parts, as well as the contact surfaces, are installed in an interior compartment of the switch housing so that they are protected against foreign matter. In addition, the contact is switchable when the belt tongue is inserted. In the switch housing, outside of the interior compartment, a pivotally mounted actuating element is installed. This actuating element has an arch-shaped design. On its side, opposite the bearing, it is provided with a sliding-contact area. This switch is characterized by the fact that the actuating element between the bearing and the sliding-contact area is provided with a dome-shaped area penetrating the lower housing side.
Ionizing electrode with a cleaning mechanism which comprises: a solenoid with a bushing, a magnetic conductor, a coil housing a solenoid core, the solenoid core having first and second ends, a return spring and a high voltage supply terminal; and an ionizing electrode mounted inside the bushing and configured so that an ionizing end and a non-ionizing end of the ionizing electrode protrude from the bushing; characterized in that: the non-ionizing end of the ionizing electrode is fastened to the first end of the solenoid core; the high voltage supply terminal is connected to the second end of the solenoid core through the return spring for feeding high voltage via the solenoid core to the ionizing electrode; and the length of the bushing is larger than the maximum amplitude of back-and-forth movement of the solenoid core. a solenoid with a bushing, a magnetic conductor, a coil housing a solenoid core, the solenoid core having first and second ends, a return spring and a high voltage supply terminal; and an ionizing electrode mounted inside the bushing and configured so that an ionizing end and a non-ionizing end of the ionizing electrode protrude from the bushing; the non-ionizing end of the ionizing electrode is fastened to the first end of the solenoid core; the high voltage supply terminal is connected to the second end of the solenoid core through the return spring for feeding high voltage via the solenoid core to the ionizing electrode; and the length of the bushing is larger than the maximum amplitude of back-and-forth movement of the solenoid core.
Arrangement for heating drinking water for at least one consumption point or tapping point, comprising a fresh water station having an inlet for cold drinking water T K, a heating device for heating a heat-transfer medium M, a pump for circulation of the medium heated by the heating device through the fresh water station, a heat exchanger within the fresh water station for transfer of the heat generated by the heating device to the cold drinking water T K, and an instantaneous water heater arranged behind the fresh water station in the direction of flow of the already heated drinking water T W, having a control and regulating unit for controlling and/or regulating the temperature of the drinking water, wherein between the instantaneous water heater and the fresh water station there is a direct control and/or regulating signal link, characterised in that the direct control and/or regulating signal link is for nominal value adjustment of the temperature of the drinking water in the fresh water station by the instantaneous water heater.
A method comprising: providing an optical fiber preform having a longitudinal axis, an outer diameter and a circumference, the optical fiber preform comprising at least two cylindrical layers of glass having different indices of refraction; providing a two-dimensional pattern having a length parallel to the longitudinal axis of the optical fiber preform, the two-dimensional pattern comprising a plurality of periodically arranged straight lines extending across and beyond the outer diameter of the optical fiber preform in each direction and positioned at a non-perpendicular angle relative to the longitudinal axis of the optical fiber preform when viewed from an image capturing device; providing said image capturing device disposed such that the optical fiber preform is aligned between the two-dimensional pattern and the image capturing device; rotating the optical fiber preform about its longitudinal axis and acquiring a first plurality of images of the two-dimensional pattern viewed through the optical fiber preform at at least two different points along the circumference of the optical fiber preform; and determining at least one geometric property of the optical fiber preform from the first plurality of images. providing an optical fiber preform having a longitudinal axis, an outer diameter and a circumference, the optical fiber preform comprising at least two cylindrical layers of glass having different indices of refraction; providing a two-dimensional pattern having a length parallel to the longitudinal axis of the optical fiber preform, the two-dimensional pattern comprising a plurality of periodically arranged straight lines extending across and beyond the outer diameter of the optical fiber preform in each direction and positioned at a non-perpendicular angle relative to the longitudinal axis of the optical fiber preform when viewed from an image capturing device; providing said image capturing device disposed such that the optical fiber preform is aligned between the two-dimensional pattern and the image capturing device; rotating the optical fiber preform about its longitudinal axis and acquiring a first plurality of images of the two-dimensional pattern viewed through the optical fiber preform at at least two different points along the circumference of the optical fiber preform; and determining at least one geometric property of the optical fiber preform from the first plurality of images.
An electronic device, wherein the electronic device is provided with a segmented metal frame, the electronic device further comprises an antenna feeding point, an antenna ground, a feeding branch, a grounding branch, an antenna resonance arm, a variable capacitor, and a control circuit, the antenna resonance arm is a part of said metal frame, the antenna feeding point is disposed on the feeding branch, a first connection portion and a second connection portion are disposed on the antenna resonance arm, the first connection portion is disposed on a first end portion of the antenna resonance arm, the second connection portion is disposed between the first end portion and a second end portion of the antenna resonance arm, the feeding branch is disposed between the second connection portion and the antenna ground, the grounding branch is disposed between the first connection portion and the antenna ground, the variable capacitor is disposed on the feeding branch, the variable capacitor is disposed between the antenna feeding point and the second connection portion, and the control circuit is configured to adjust a capacitance of the variable capacitor, characterized in that a part between the first connection portion and the second connection portion on the antenna resonance arm is used as an antenna radiator to send or receive a low-frequency resonance frequency signal, wherein a distance between the first connection portion and the second connection portion is less than one eighth of a wavelength of the low-frequency resonance frequency and the distance is configured to be adjusted to meet a boundary condition of the low-frequency resonance frequency, and wherein the electronic device further comprises a short grounding branch provided with a controlled switch, a third connection portion is further disposed on the antenna resonance arm, the third connection portion is between the first connection portion and the second connection portion, the short grounding branch is disposed between the third connection portion and the antenna ground, and the control circuit is further configured to control the controlled switch to be switched off or switched on.
A method in a base station for determining an uplink transmission timing correction for communication in a telecommunication system in which aggregation of component carriers is applied, the method comprising - receiving a signal on a selected uplink component carrier from a user equipment, - measuring an arrival time of the received signal, - determining a timing correction of the uplink transmission timing based on the measured arrival time, - determining for which of the uplink component carriers used by the user equipment the determined timing correction is valid, - sending the timing correction and information on which of the uplink component carriers the timing correction is valid for to the user equipment. - receiving a signal on a selected uplink component carrier from a user equipment, - measuring an arrival time of the received signal, - determining a timing correction of the uplink transmission timing based on the measured arrival time, - determining for which of the uplink component carriers used by the user equipment the determined timing correction is valid, - sending the timing correction and information on which of the uplink component carriers the timing correction is valid for to the user equipment.
Effect panel having a honeycomb structure forming a first layer and having honeycomb apertures, which extend substantially at a right angle to the layer, and having a second layer spaced apart from the first layer and formed as a glass plate, characterised in that the honeycomb structure lies against a third layer consisting of wood.
A teletext decoding device for detecting a teletext signal in an image signal to convert the detected teletext signal into a teletext display signal, the device comprising: a station name detector for detecting, from the teletext signal, a broadcast station name of a broadcast station which transmits the image signal; and a comparator for comparing a latest broadcast station name most recently detected from a current teletext signal with a previous broadcast station name previously detected from a previous teletext signal, and issuing an instruction to initialize the teletext display signal when it is determined from the comparison that the two broadcast station names are different from each other. a station name detector for detecting, from the teletext signal, a broadcast station name of a broadcast station which transmits the image signal; and a comparator for comparing a latest broadcast station name most recently detected from a current teletext signal with a previous broadcast station name previously detected from a previous teletext signal, and issuing an instruction to initialize the teletext display signal when it is determined from the comparison that the two broadcast station names are different from each other.
A kit configured for delivering a multi-layered beverage wherein the kit comprises: - a coffee component in the form of a liquid or liquid concentrate, for producing a dark layer, provided within individual pods containing a single serving; wherein the coffee component has a total solid content of less than 10% w/w; and - a creamer component in the form of a powder, for producing a white layer, contained in a sachet; wherein the creamer component has a total solid content of at least 10% w/w; wherein the creamer comprises a protein, a fat and a carbohydrate, and wherein the fat content in the creamer is at most 10% w/w of the creamer composition and the fat comprises a combination of milk fat and vegetable fat.. - a coffee component in the form of a liquid or liquid concentrate, for producing a dark layer, provided within individual pods containing a single serving; wherein the coffee component has a total solid content of less than 10% w/w; and - a creamer component in the form of a powder, for producing a white layer, contained in a sachet; wherein the creamer component has a total solid content of at least 10% w/w; wherein the creamer comprises a protein, a fat and a carbohydrate, and wherein the fat content in the creamer is at most 10% w/w of the creamer composition and the fat comprises a combination of milk fat and vegetable fat..
System for generating light radiation to neutralize a microorganism, said system comprising: - a light source for emitting a light radiation, - storage means in which the following are stored: ▪ one or more unique identification codes, each of which is associated with a respective microorganism, and ▪ at least one respective wavelength range associated with said microorganism, - a logic control unit, connected to said light source and to said storage means, and configured to: ∘ select a wavelength range based on the microorganism to be neutralized, ∘ activate said light source in such a way that the light radiation emitted by said light source has a wavelength within said selected wavelength range, so that, when the system is in use, said light radiation induces an optical resonance in the microorganism, causing a denaturation of the genetic patrimony of said microorganism, and characterised in that, when a plurality of wavelength ranges are associated with the same microorganism, said logic control unit is configured to select a wavelength range between the wavelengths ranges of said plurality of wavelength ranges, in which said wavelength range has wavelength values greater than the wavelength values belonging to the other wavelength ranges of said plurality of wavelengths. - a light source for emitting a light radiation, - storage means in which the following are stored: ▪ one or more unique identification codes, each of which is associated with a respective microorganism, and ▪ at least one respective wavelength range associated with said microorganism, ▪ one or more unique identification codes, each of which is associated with a respective microorganism, and ▪ at least one respective wavelength range associated with said microorganism, - a logic control unit, connected to said light source and to said storage means, and configured to: ∘ select a wavelength range based on the microorganism to be neutralized, ∘ activate said light source in such a way that the light radiation emitted by said light source has a wavelength within said selected wavelength range, so that, when the system is in use, said light radiation induces an optical resonance in the microorganism, causing a denaturation of the genetic patrimony of said microorganism, and characterised in that, ∘ select a wavelength range based on the microorganism to be neutralized, ∘ activate said light source in such a way that the light radiation emitted by said light source has a wavelength within said selected wavelength range, so that, when the system is in use, said light radiation induces an optical resonance in the microorganism, causing a denaturation of the genetic patrimony of said microorganism, and characterised in that,
An oligonucleotide or polynucleotide analogue for pharmaceutical use wherein said oligonucleotide or polynucleotide analogue comprises one or more structures of the general formula where B is a pyrimidine or purine nucleic acid base,
A method of continuously purifying an organometallic compound comprising: (a) providing a crude organometallic compound in a liquid phase; (b) providing a stripping column having a first portion with a first inlet and a first outlet and a second portion with a second inlet and a second outlet; (c) feeding the crude organometallic compound in the liquid phase to the first portion of the stripping column through the first inlet; (d) feeding a gas stream to the second portion of the stripping column through the second inlet; (e) directing the crude organometallic compound through the stripping column opposite to a flow of the gas stream; and (f) collecting purified organometallic compound in the liquid phase from the second outlet.