mhurhangee/patent-ind-claim-en huggingface dataset:
A plasma-generating device comprising: a pair of electrodes configured to generate plasma by electrical discharge; a power source device configured to generate power to be supplied to the pair of electrodes ; a pair of cables configured to transmit the power from the power source device to the pair of electrodes ; a conductive shield member configured to shield the pair of cables ; a ground cable configured to ground the shield member ; a detector (CT) configured to detecting a current flowing through the ground cable ; and a reporting section configured to report a current abnormality in response to the detection by the detector (CT) of a current equal to or greater than a predetermined value, wherein. a control section configured to cause the power source device to stop supplying the power in response to the detector (CT) detecting a current equal to or greater than the predetermined value, and a supply device configured to supply a processing gas between the pair of electrodes , wherein the control section is configured to stop the supply of the processing gas by the supply device in response to the detector (CT) detecting a current equal to or greater than the predetermined value characterized by: a heater configured to heat the processing gas, wherein the control section is configured to cause the heater to stop heating the processing gas in response to the detector (CT) detecting a current equal to or greater than the predetermined value. a pair of electrodes configured to generate plasma by electrical discharge; a power source device configured to generate power to be supplied to the pair of electrodes ; a pair of cables configured to transmit the power from the power source device to the pair of electrodes ; a conductive shield member configured to shield the pair of cables ; a ground cable configured to ground the shield member ; a detector (CT) configured to detecting a current flowing through the ground cable ; and a reporting section configured to report a current abnormality in response to the detection by the detector (CT) of a current equal to or greater than a predetermined value, wherein. a control section configured to cause the power source device to stop supplying the power in response to the detector (CT) detecting a current equal to or greater than the predetermined value, and a supply device configured to supply a processing gas between the pair of electrodes , wherein the control section is configured to stop the supply of the processing gas by the supply device in response to the detector (CT) detecting a current equal to or greater than the predetermined value characterized by: a heater configured to heat the processing gas, wherein the control section is configured to cause the heater to stop heating the processing gas in response to the detector (CT) detecting a current equal to or greater than the predetermined value. a heater configured to heat the processing gas, wherein the control section is configured to cause the heater to stop heating the processing gas in response to the detector (CT) detecting a current equal to or greater than the predetermined value.
Use of at least one octahedral oligosilsesquioxane of general formula (I) hereinafter: wherein: - either R 1 and R 2 are identical to each other and represent a group of formula: or - or R 1 and R 2 are different from one another, in which case R 1 represents a group of formula: while R 2 represents a group of formula: as sensitive material in a chemical sensor for detecting the presence, in a gas medium, of at least one compound selected from opiates, cocaine, cannabinoids, amphetamines, lysergic acid diethylamide, cathine, cathinone, the synthetic derivatives of cathinone, γ-hydroxybutyric acid, ketamine, isoamyl nitrite, n-amyl nitrite, the isomers thereof, the salts thereof, the esters thereof, the ethers thereof, the precursors thereof, and the breakdown products thereof. - either R 1 and R 2 are identical to each other and represent a group of formula: or - or R 1 and R 2 are different from one another, in which case R 1 represents a group of formula: while R 2 represents a group of formula: as sensitive material in a chemical sensor for detecting the presence, in a gas medium, of at least one compound selected from opiates, cocaine, cannabinoids, amphetamines, lysergic acid diethylamide, cathine, cathinone, the synthetic derivatives of cathinone, γ-hydroxybutyric acid, ketamine, isoamyl nitrite, n-amyl nitrite, the isomers thereof, the salts thereof, the esters thereof, the ethers thereof, the precursors thereof, and the breakdown products thereof.
A memory configured to receive data from a multi-rank memory bus , the memory comprising: a first rank ; a second rank ; wherein the multi-rank bus is bifurcated into a first bus portion that couples to the first rank and a second bus portion that couples to the second rank ; each bus portion coupled to a respective inductor coupled between the respective bus portion and the respective rank; a respective resistor matched to an impedance of the multi-rank memory bus; and a respective switch coupled to a terminal of the respective resistor, wherein the respective switch and respective resistor are configured to couple the multi-rank memory bus to ground through the respective resistor while the respective switch is closed and to isolate the multi-rank bus from ground while the respective switch is open, and wherein the memory is configured to close the respective switch while the memory is not being written to by a data source endpoint so that the respective rank has an input impedance that matches an impedance of the multi-rank memory bus, and to open the respective switch while the memory is being written to by the data source endpoint such that the respective rank has an input impedance that is mismatched to the impedance of the multi-rank memory bus. a first rank ; a second rank ; wherein the multi-rank bus is bifurcated into a first bus portion that couples to the first rank and a second bus portion that couples to the second rank ; each bus portion coupled to a respective inductor coupled between the respective bus portion and the respective rank; a respective resistor matched to an impedance of the multi-rank memory bus; and a respective switch coupled to a terminal of the respective resistor, wherein the respective switch and respective resistor are configured to couple the multi-rank memory bus to ground through the respective resistor while the respective switch is closed and to isolate the multi-rank bus from ground while the respective switch is open, and wherein the memory is configured to close the respective switch while the memory is not being written to by a data source endpoint so that the respective rank has an input impedance that matches an impedance of the multi-rank memory bus, and to open the respective switch while the memory is being written to by the data source endpoint such that the respective rank has an input impedance that is mismatched to the impedance of the multi-rank memory bus.
A beverage preparation device , in particular a coffee machine having a brewing unit for the lixiviation of ground coffee, having at least one device for heating a fluid, in particular milk, with steam, said beverage preparation device comprising a heating device for heating water for the formation of steam, the device comprising at least two jet pumps which are connected in series, in particular realized as single pumps and connected to each other, each jet pump having a drive nozzle for generating a vacuum, the fluid aspirated by a first drive nozzle of the first jet pump as a result of a vacuum and heated by means of steam being additionally capable of being aspirated by another drive nozzle of the other jet pump and of being further heated by means of steam, the drive nozzles being capable of being supplied via different driving steam lines or via a common, branched driving steam line , characterized in that at least one driving steam line has a throttle device or a time delay device realized in such a manner that it is possible to set an individual steam supply at the drive nozzles .
A continuous press arrangement for manufacture of building panels, such as floor or wall panels, comprising: an upper rotatable inlet drum connected to an upper rotatable outlet drum via an upper continuous press belt ; a lower rotatable inlet drum connected to a lower rotatable outlet drum via a lower continuous press belt ; said upper and lower press belts configured to form a product path there between for feeding a product in a feeding direction (FD) in response to rotation of one or more of said drums ; an upper and a lower press table each comprising a displaceable pressure cushion extending along at least a portion of said path and configured to facilitate a pressure zone between said press table and the press belt ; wherein said press table comprises a displacement groove and said pressure cushion is configured to be at least partially received in said displacement groove , wherein said pressure cushion comprises a friction seal element configured to be in contact with the press belt, wherein said pressure cushion comprises a seal frame configured to be received in said displacement groove , wherein the continuous press arrangement comprises a seal member , wherein the seal frame is configured to be connected to the seal member , configured to seal against the pressure applied to said displacement groove , such as against a fluid creating the pressure, and wherein the seal member comprises a substantially U-shaped cross-section which is upwards open towards an inner wall of the displacement groove . an upper rotatable inlet drum connected to an upper rotatable outlet drum via an upper continuous press belt ; a lower rotatable inlet drum connected to a lower rotatable outlet drum via a lower continuous press belt ; said upper and lower press belts configured to form a product path there between for feeding a product in a feeding direction (FD) in response to rotation of one or more of said drums ; an upper and a lower press table each comprising a displaceable pressure cushion extending along at least a portion of said path and configured to facilitate a pressure zone between said press table and the press belt ; wherein said press table comprises a displacement groove and said pressure cushion is configured to be at least partially received in said displacement groove , wherein said pressure cushion comprises a friction seal element configured to be in contact with the press belt, wherein said pressure cushion comprises a seal frame configured to be received in said displacement groove , wherein the continuous press arrangement comprises a seal member , wherein the seal frame is configured to be connected to the seal member , configured to seal against the pressure applied to said displacement groove , such as against a fluid creating the pressure, and wherein the seal member comprises a substantially U-shaped cross-section which is upwards open towards an inner wall of the displacement groove .
A transparent laminate structure, comprising: two transparent layers each having an inner face, an outer face , and a side edge ; a transparent interlayer interposed between and laminating the inner faces of the two transparent layers to one another, the transparent interlayer extending over the side edges of the two transparent layers ; and an inorganic barrier layer laminated to the side edges by the transparent interlayer , characterized in that an edge interlayer and the inorganic barrier layer extend past side edges and onto a portion of an exterior face of an outermost transparent layer ; in that the inorganic barrier layer extends past the transparent interlayer and is bonded or laminated to an outer face of the transparent layers , wherein the inorganic barrier layer has a portion that is laminated to the outer faces of the transparent layers and a remaining portion of the inorganic barrier layer remains unlaminated to the outer faces . two transparent layers each having an inner face, an outer face , and a side edge ; a transparent interlayer interposed between and laminating the inner faces of the two transparent layers to one another, the transparent interlayer extending over the side edges of the two transparent layers ; and an inorganic barrier layer laminated to the side edges by the transparent interlayer , characterized in that an edge interlayer and the inorganic barrier layer extend past side edges and onto a portion of an exterior face of an outermost transparent layer ; in that the inorganic barrier layer extends past the transparent interlayer and is bonded or laminated to an outer face of the transparent layers , wherein the inorganic barrier layer has a portion that is laminated to the outer faces of the transparent layers and a remaining portion of the inorganic barrier layer remains unlaminated to the outer faces .
A medical device comprising: an external electrode assembly comprising a pair of electrodes and a camera included with the external electrode assembly, the camera configured to generate image information indicative of a location of at least one of the pair of electrodes relative to the chest of a patient ; a processor; at least one output device; and an electronic interface configured to receive the image information from the camera and provide signals representing the image information to the processor, wherein the processor is configured to: receive the signals representing the image information, based on the signals representing the image information, determine electrode positioning feedback for a rescuer , and provide the electrode positioning feedback to the at least one output device, and wherein the at least one output device is configured to provide the electrode positioning feedback as an instruction to move the at least one of the pair of electrodes. an external electrode assembly comprising a pair of electrodes and a camera included with the external electrode assembly, the camera configured to generate image information indicative of a location of at least one of the pair of electrodes relative to the chest of a patient ; a processor; at least one output device; and an electronic interface configured to receive the image information from the camera and provide signals representing the image information to the processor, wherein the processor is configured to: receive the signals representing the image information, based on the signals representing the image information, determine electrode positioning feedback for a rescuer , and provide the electrode positioning feedback to the at least one output device, and wherein the at least one output device is configured to provide the electrode positioning feedback as an instruction to move the at least one of the pair of electrodes. receive the signals representing the image information, based on the signals representing the image information, determine electrode positioning feedback for a rescuer , and provide the electrode positioning feedback to the at least one output device, and wherein the at least one output device is configured to provide the electrode positioning feedback as an instruction to move the at least one of the pair of electrodes.
A fluidic control device , in particular for a magnetocaloric machine comprising at least one fluidic distributor connected to a fluidic circuit , said at least one fluidic distributor comprising a movable slide disposed to be displaced between two distribution positions, said control device comprising a movable cam disposed to cooperate with a follower member , said cam being coupled to an actuator, and said follower member being coupled to the slide of said distributor , said cam comprising a cam profile provided with at least a first section (T1) defining a first distribution position, with a second section (T2) defining a second distribution position, and with a transition zone (ZT) connecting said first section (T1) to said second section (T2), the control device being characterized in that said cam is a double-acting cam disposed to displace said follower member in reciprocating translation in one direction and in the opposite direction respectively corresponding to said first distribution position and to said second distribution position of said distributor , and in that said follower member comprises a first guide element disposed to move freely in said cam , and a second guide element disposed to move freely in a slideway which is fixed with respect to said at least one distributor , in order to guide said follower member in reciprocating translation between said two distribution positions.
Mixed-modal anion-exchange materials comprising a support and an interactive ligand moiety, characterized by the following Formula V having the following meaning and wherein the waved lines represent the support, said support being based on silica or
A use of a filmic facestock material for polymeric packaging comprising: a pressure sensitive adhesive composition comprising a monomer mixture, wherein the monomer mixture comprises (a) at least one monomer which may undergo free radical polymerization and whose homopolymer has a glass transition temperature of less than or equal to 10°C comprising at least one (meth)acrylic acid ester, selected from the group consisting of benzyl acrylate, n-butyl acrylate, sec-butyl acrylate, cyanoethyl acrylate, iso-decyl acrylate, n-decyl acrylate, dodecyl acrylate, dodecyl methacrylate, 2-ethoxyethyl acrylate, ethyl acrylate, 2-ethylhexyl acrylate, 2-ethylhexyl methacrylate, n-hexyl acrylate, hexyl methacrylate, isobutyl acrylate, isopropyl acrylate, 2-methoxyethyl acrylate, methyl acrylate, octadecyl methacrylate, octyl methacrylate, 2-phenylethyl acrylate, n-propyl acrylate, and 2,2,2-trifluoroethyl acrylate, and combinations thereof, (b) at least one mono-olefinically unsaturated monomer having aldehyde or ketone functionality, and (c) an effective amount of at least one polyhydrazide crosslinker having hydrazine functionality; wherein the pressure sensitive adhesive composition exhibits a peel adhesion value of between 70N/m (0.4 lbs/in) and 700N/m (4 lbs/in) measured according ASTM Designation D3330 Standard Test Method for Peel Adhesion of Pressure-Sensitive Tape; to achieve during recycling a percent film remaining on the polymeric packaging after a sink-float testing of 0% to 8% tested as described in the description. (b) at least one mono-olefinically unsaturated monomer having aldehyde or ketone functionality, and (c) an effective amount of at least one polyhydrazide crosslinker having hydrazine functionality;
A method for preparing superabsorbent polymer comprising the steps of conducting crosslinking polymerization of water soluble ethylenically unsaturated monomers having acid groups of which at least a part are neutralized, in the presence of an internal crosslinking agent, to form hydrogel polymer; drying, grinding and sieving the hydrogel polymer to form base polymer powder; and surface crosslinking the base polymer powder using a surface crosslinking solution comprising a surface crosslinking agent and cuprous oxide as an antibacterial agent, wherein the cuprous oxide is included in the content of 0.001 to 2.5 parts by weight, based on 100 parts by weight of the base polymer powder.
Shower tray, comprising: - a base element provided with a perimeter edge (1.1) from which an inclined surface (1.2) projects towards a drainage opening (1.3), - furring strips protruding from the inclined surface (1.2), and - a user support surface formed by floor tiles (3.1), where, - upper faces (6.1) of the furring strips form a horizontal base surface of the floor tiles (3.1), - first ends (3.11) of the floor tiles (3.1) are secured on at least one transverse band or strip , - the transverse band or strip comprises a swivelling end (7.1) and a fastening end (7.2) of the first end (3.11) of the floor tile (3.1), and - a longitudinal recess is conformed in respective recesses (6.11) of the upper faces (6.1) of the furring strips and/or in the perimeter edge (1.1) of the base element , the longitudinal recess is adapted to accommodate the swivelling end (7.1) of the transverse band or strip , characterised in that the swivelling end (7.1) of the transverse band or strip comprises a right-angled profile corner (7.11), said right-angled profile corner (7.11) being adapted to slide on the longitudinal recess , when removing floor tiles (3.1) from their horizontal base surface . - a base element provided with a perimeter edge (1.1) from which an inclined surface (1.2) projects towards a drainage opening (1.3), - furring strips protruding from the inclined surface (1.2), and - a user support surface formed by floor tiles (3.1), - upper faces (6.1) of the furring strips form a horizontal base surface of the floor tiles (3.1), - first ends (3.11) of the floor tiles (3.1) are secured on at least one transverse band or strip , - the transverse band or strip comprises a swivelling end (7.1) and a fastening end (7.2) of the first end (3.11) of the floor tile (3.1), and - a longitudinal recess is conformed in respective recesses (6.11) of the upper faces (6.1) of the furring strips and/or in the perimeter edge (1.1) of the base element , the longitudinal recess is adapted to accommodate the swivelling end (7.1) of the transverse band or strip ,
A clocked electronic device comprising: a wireless receiver or transceiver configured to receive a propagation-delayed wireless clock synchronization signal comprising first and second propagation-delayed carrier signals at respective first and second carrier frequencies separated by a frequency difference; a clock comprising a local oscillator and a digital counter , the local oscillator being configured to drive the digital counter ; and at least one electronic signal processing component configured to perform clock synchronization including: determining a wrap count ( k ) from a phase difference ( φ 1 ) between phases of the first and second propagation-delayed carrier signals; unwrapping a wrapped phase ( φ 2, wrapped ) of the propagation-delayed wireless clock synchronization signal using the wrap count to generate an unwrapped phase ( φ 2, unwrapped ); and synchronizing the clock using the unwrapped phase. a wireless receiver or transceiver configured to receive a propagation-delayed wireless clock synchronization signal comprising first and second propagation-delayed carrier signals at respective first and second carrier frequencies separated by a frequency difference; a clock comprising a local oscillator and a digital counter , the local oscillator being configured to drive the digital counter ; and at least one electronic signal processing component configured to perform clock synchronization including: determining a wrap count ( k ) from a phase difference ( φ 1 ) between phases of the first and second propagation-delayed carrier signals; unwrapping a wrapped phase ( φ 2, wrapped ) of the propagation-delayed wireless clock synchronization signal using the wrap count to generate an unwrapped phase ( φ 2, unwrapped ); and synchronizing the clock using the unwrapped phase. determining a wrap count ( k ) from a phase difference ( φ 1 ) between phases of the first and second propagation-delayed carrier signals; unwrapping a wrapped phase ( φ 2, wrapped ) of the propagation-delayed wireless clock synchronization signal using the wrap count to generate an unwrapped phase ( φ 2, unwrapped ); and synchronizing the clock using the unwrapped phase.