mhurhangee/patent-ind-claim-en huggingface dataset:
Device for printing flat postal items , such as envelopes, padded envelopes, sleeves, cards, printed products or the like, fed one at a time to a printing unit of a franking machine , passing through the printing unit on at least one side in a frictionally driven manner and guided at one side edge in the conveying direction (F), consisting of a conveying device gripping the postal items at a front end in the conveying direction (F) and forming a conveying plane of a conveying gap/channel of the conveying device by way of a guide plate arranged on the underside of the printing unit and a conveying unit disposed opposite the guide plate , wherein the conveying unit has at [east two endless traction means disposed at a distance alongside one another as viewed in the conveying direction (F) of the postal items and each circulating about a common axis on deflecting rollers , the tight side of the traction means directed towards the guide plate and the slack side of the traction means being guided on rollers mounted in a freely rotatable manner in opposing pairs at pivotable ends of one of a plurality of double levers of the conveying unit formed of angled lever arms and associated with the tight side or the slack side of the traction means , and supported on the inner faces of the sides by means of spring force acting on the double levers and wherein the rollers supporting the tight side form a transport plane parallel to the conveying plane during the advance of the postal items .
An electronic circuit module configured to reduce signal losses, said module comprising: an electronic circuit device including: an integrated circuit die having an on-die passive component , an output configured to provide an output signal having an associated current to the electronic circuit module , a first lead and a second lead; a substrate including a trace for conducting the current from said output to an output of the electronic circuit module, the trace having a first bonding pad thereon electrically connected to the first lead and a second bonding pad located on the trace between the first bonding pad and the output of the electronic circuit module and being electrically connected to the second lead, said electronic circuit device configured such that said on-die passive component electrically connects to said first lead and said output signal electrically connects to the second lead, the current thereby being directed away from the first bonding pad, the electronic device being a radio frequency electronic circuit device, the output signal being a radio frequency output signal, and the current being a radio frequency current. an electronic circuit device including: an integrated circuit die having an on-die passive component , an output configured to provide an output signal having an associated current to the electronic circuit module , a first lead and a second lead; a substrate including a trace for conducting the current from said output to an output of the electronic circuit module, the trace having a first bonding pad thereon electrically connected to the first lead and a second bonding pad located on the trace between the first bonding pad and the output of the electronic circuit module and being electrically connected to the second lead, said electronic circuit device configured such that said on-die passive component electrically connects to said first lead and said output signal electrically connects to the second lead, the current thereby being directed away from the first bonding pad, the electronic device being a radio frequency electronic circuit device, the output signal being a radio frequency output signal, and the current being a radio frequency current.
Artificial agglomerate stone material comprising inorganic fillers and a hardened binder, wherein the binder is an organic resin and the inorganic fillers comprise feldspar granules comprising a combination of oxides according to Formula A or Formula B: Formula A Formula B SiO 2 60.0 - 69.5 wt.% 60.0 - 69.5 wt.% Al 2 O 3 17.0 - 20.0 wt.% 17.0 - 20.0 wt.% Na 2 O 10.0 - 11.9 wt.% 0.0 - 2.0 wt.% K 2 O 0.0 - 2.0 wt.% 12.0 - 16.9 wt.% Fe 2 O 3 +TiO 2 0.0 - 0.5 wt.% 0.0 - 0.5 wt.% based on the weight of the feldspar granules.
A spectrometer, comprising: an active multiplier chain (AMC) light source including a radio-frequency (RF) input and a mm-wave output; a frequency source including an output in communication with the RF input of the light source; and a pulse modulator configured to pulse-modulate the output of the frequency source, wherein an output frequency of the frequency source is specified to provide an integral number of oscillation cycles during a measurement cycle, the measurement cycle established at least in part using the pulse modulator , wherein the frequency source is a frequency-agile pulse modulated frequency source, wherein the frequency-agile pulse modulated frequency source includes a tunable synthesizer. an active multiplier chain (AMC) light source including a radio-frequency (RF) input and a mm-wave output; a frequency source including an output in communication with the RF input of the light source; and a pulse modulator configured to pulse-modulate the output of the frequency source, wherein an output frequency of the frequency source is specified to provide an integral number of oscillation cycles during a measurement cycle, the measurement cycle established at least in part using the pulse modulator , wherein the frequency source is a frequency-agile pulse modulated frequency source, wherein the frequency-agile pulse modulated frequency source includes a tunable synthesizer.
A root canal treatment material comprising: at least one compound (A) selected from the group consisting of a compound represented by Formula , a compound represented by Formula , and a compound represented by Formula ; an acidic group-containing monomer (B); and a polymerization initiator (C), in Formula , R 1 's each independently represent a hydrogen atom or a methyl group, R 2 's each independently represent a linear or branched alkylene group having 2 to 4 carbon atoms, provided that R 2 does not have a structure in which an oxygen atom and a nitrogen atom bonded to both ends of R 2 are bonded to the same carbon atom of R 2 , k's each independently represent 2 or 3, x, y, and z each independently represent an integer of 0 to 6, in Formula , R 3 's each independently represent a hydrogen atom or a methyl group, R 4 and R 5 each independently represent an ethylene group or a 1,3-propylene group, and w represents an integer of 0 to 2, and in Formula , R 6 's each independently represent a hydrogen atom or a methyl group, R 7 's each independently represent an ethylene group, 1,2-propylene group, or a 1,3-propylene group, and p represents an integer of 2 to 6. at least one compound (A) selected from the group consisting of a compound represented by Formula , a compound represented by Formula , and a compound represented by Formula ; an acidic group-containing monomer (B); and a polymerization initiator (C), in Formula , R 1 's each independently represent a hydrogen atom or a methyl group, R 2 's each independently represent a linear or branched alkylene group having 2 to 4 carbon atoms, provided that R 2 does not have a structure in which an oxygen atom and a nitrogen atom bonded to both ends of R 2 are bonded to the same carbon atom of R 2 , k's each independently represent 2 or 3, x, y, and z each independently represent an integer of 0 to 6, in Formula , R 3 's each independently represent a hydrogen atom or a methyl group, R 4 and R 5 each independently represent an ethylene group or a 1,3-propylene group, and w represents an integer of 0 to 2, and in Formula , R 6 's each independently represent a hydrogen atom or a methyl group, R 7 's each independently represent an ethylene group, 1,2-propylene group, or a 1,3-propylene group, and p represents an integer of 2 to 6.
A hermetic refrigerant compressor comprising a sealed container in which lubricating oil having a kinematic viscosity in a range of 1 mm 2 /S to 10 mm 2 /S at 40°C is stored, the sealed container accommodating an electric element and a compression element , the compression element being driven by the electric element and configured to compress a refrigerant, wherein the lubricating oil has a surface tension in a range of 23 mN/m to 45 mN/m when the surface tension is measured by the du Noüy ring method defined in JIS K2241.
Material melting device for melting a work material and discharge of the melted work material, which material melting device comprises: - a cold part and a hot part comprising a head part , - a work material duct for feeding of said work material, which work material duct extends at least partially through the cold part to a melting chamber which is arranged in the hot part , wherein the hot part comprises a nozzle duct extending from the melting chamber to a nozzle opening such that melted work material can be flowed from the melting chamber and discharged from the nozzle opening , and which melting chamber has a cross sectional area which is larger than the cross-sectional area of the work material duct , and wherein the cold part comprises a cooling sleeve which at least partially is made from a thermally conducting material and which comprises a through-going opening through which the work material duct extends, the cooling sleeve being cooled by a cooling element , and wherein a sealing element is provided in the through-going opening of the cooling sleeve , and the work material duct extends through the sealing element , the sealing element abutting the head element at a contact area which has an area that is sufficiently large for the contact area to be self-sealing and leakage of molten work material is avoided. - a cold part and a hot part comprising a head part , - a work material duct for feeding of said work material, which work material duct extends at least partially through the cold part to a melting chamber which is arranged in the hot part ,
A system for centrifugally separating by density and extracting selected fractions from a container , the system comprising: a tube to contain a whole material; a buoy system defining a central axis D and arranged to be placed within the tube , including: a connection member , which is a buoy post, extending a length between a first end and a second end; a first buoy member having a first density and fixed near said second end of said connection member ; a second buoy member having a second density less than said first density and slidably moveable along said length of said connection member ; wherein said first buoy member includes a first collection face at a proximal or upper portion of the first buoy member , the first collection face generally defining a concave area; wherein said second buoy member is operable to move relative to said first buoy member along said length of said connection member ; wherein a collection volume is defined between the first collection face of the first buoy member and a second collection face of the second buoy member ; wherein the connection member comprises a central bore and a port connecting the bore with the first collection face ; and wherein a first selected fraction of the selected fractions is operable to be collected from said collection volume through the port and bore . a tube to contain a whole material; a buoy system defining a central axis D and arranged to be placed within the tube , including: a connection member , which is a buoy post, extending a length between a first end and a second end; a first buoy member having a first density and fixed near said second end of said connection member ; a second buoy member having a second density less than said first density and slidably moveable along said length of said connection member ; a connection member , which is a buoy post, extending a length between a first end and a second end; a first buoy member having a first density and fixed near said second end of said connection member ; a second buoy member having a second density less than said first density and slidably moveable along said length of said connection member ; wherein said first buoy member includes a first collection face at a proximal or upper portion of the first buoy member , the first collection face generally defining a concave area; wherein said second buoy member is operable to move relative to said first buoy member along said length of said connection member ; wherein a collection volume is defined between the first collection face of the first buoy member and a second collection face of the second buoy member ; wherein the connection member comprises a central bore and a port connecting the bore with the first collection face ; and wherein a first selected fraction of the selected fractions is operable to be collected from said collection volume through the port and bore .
A refrigerant for a cooling device comprising a cooling circuit comprising at least one heat exchanger in which the refrigerant undergoes a phase change, characterized in that the refrigerant is a mixture of a mass fraction of refrigerant mixture R449A and a mass fraction of at least one other refrigerant mixture, the mass fraction of R449A in the refrigerant being 30 to 70 mass percent, the mass fraction of the other refrigerant mixture in the refrigerant being 30 to 70 mass percent, the other refrigerant mixture being refrigerant mixture R410A or refrigerant mixture R466A.
Flat contact socket having a connecting section for electrical connection to at least one electrical conductor and having a flat contact receptacle into which a flat contact can be inserted and that extends in a socket body along a flat contact plane and, characterized by at least two extensions which extend away from at least two spaced-apart regions of the socket body and form a common connecting surface of the connecting section .
An aqueous hair relaxer composition having an alkalinity of at least pH 12, the composition comprising an active hair straightening ingredient in a cosmetically acceptable vehicle and a fiber elasticity conserving amount of at least one hair fiber elasticity conserving polyorganosiloxane compound having at least one siloxyl unit substituted with a pendant side chain comprising a 2,2,6,6-tetramethylpiperidinyl group attached to the silicon as represented by general Formula (I) where the average value of x and y each is independently 1 to about 200; n is 0, 1, 2 or 3; and Z is a heteroatom or substituted heteroatom, selected from the group consisting of O, NR, where R is H or alkyl, and S.
An engine controller that controls a direct fuel-injection engine including a fuel injection valve arranged to directly inject a fuel into a cylinder, and a valve overlap period adjusting mechanism configured to adjust a valve overlap period between an open period of an intake valve and an open period of an exhaust valve , the engine controller comprising: an acceleration request sensor configured to detect an acceleration request of a driver, wherein when the acceleration request occurs and a top surface temperature of a piston in the cylinder obtained on the basis of a detection value of a cooling water temperature sensor is lower than a predetermined temperature at which a liquid fuel adhering to a top surface of the piston is brought over in a liquid state to the subsequent cycle, the valve overlap period between the open period of the intake valve and the open period of the exhaust valve , which overlap period ranges before and after an exhaust top dead center, is extended compared to a valve overlap period at a time when the top surface temperature of the piston is equal to or higher than the predetermined temperature such that the combustion chamber temperature can be raised by the increased internal EGR gas at a high temperature.
A method for generating data for particle analysis, which is a method that generates data for particle analysis to be used in image analysis of a particle, the method comprising: generating virtual particle image data, which is image data of a virtual particle, on a basis of a predetermined condition, wherein the virtual particle image data is generated from model particle information of at least one model particle, which is a model for the virtual particle; generating label data corresponding to the virtual particle; associating the virtual particle image data with the label data; and training a machine learning unit using a plurality of pairs of the virtual particle image data and the label data associated with the virtual particle image data, characterized in that in the step of generating the virtual particle image data, the virtual particle image data is generated based on a probability of another particle adhering to one particle or a number of other particles that can be adhered to one particle. generating virtual particle image data, which is image data of a virtual particle, on a basis of a predetermined condition, wherein the virtual particle image data is generated from model particle information of at least one model particle, which is a model for the virtual particle; generating label data corresponding to the virtual particle; associating the virtual particle image data with the label data; and training a machine learning unit using a plurality of pairs of the virtual particle image data and the label data associated with the virtual particle image data, characterized in that in the step of generating the virtual particle image data, the virtual particle image data is generated based on a probability of another particle adhering to one particle or a number of other particles that can be adhered to one particle.
A system for determining the integrity of a container containing at least one gas, said system comprises: an environment with a lower absolute gas pressure than the pressure inside the container ; wherein said environment is an at least partially open enclosure or a closed enclosure; and wherein said at least partially open enclosure, or closed enclosure, is configured to have said container positioned therein, characterized in that the system further comprises a light source and a detector , wherein the said light source is arranged to transmit a light signal to said detector through said environment , but only outside of said container ; wherein said light source and said detector are configured as an optical sensor using tunable diode laser absorption spectroscopy; and a control unit for determining, based on said transmitted light signal being detected, if a level of said at least one gas inside said container is altered in said environment . an environment with a lower absolute gas pressure than the pressure inside the container ; wherein said environment is an at least partially open enclosure or a closed enclosure; and wherein said at least partially open enclosure, or closed enclosure, is configured to have said container positioned therein, characterized in that the system further comprises a light source and a detector , wherein the said light source is arranged to transmit a light signal to said detector through said environment , but only outside of said container ; wherein said light source and said detector are configured as an optical sensor using tunable diode laser absorption spectroscopy; and a control unit for determining, based on said transmitted light signal being detected, if a level of said at least one gas inside said container is altered in said environment .
Bed system comprising a mattress supporting structure comprising a. an upper surface for receiving a mattress, b. a chassis , c. an intermediate layer between the upper surface and the chassis for at least partly resiliently supporting the mattress on the upper surface , wherein the chassis is arranged to support the entirety of the intermediate layer and the mattress on the upper surface , resiliently supported by the intermediate layer , on a floor, wherein the chassis comprises at least one transverse beam , mounted between two opposing sides of the circumference of the chassis , wherein the transverse beam is mounted to be rotatable about a rotational axis according to the lengthwise direction of the transverse beam , between the two opposing sides of the circumference of the chassis , between a first rotational position and a second rotational position different from the first rotational position, wherein the intermediate layer comprises at least one spring means that extends, at its bottom side supported by the transverse beam , along the spring direction between the transverse beam and the upper surface , wherein the transverse beam is delimited by at least a first face and a second face different from the first face , wherein the first face constitutes a first supporting face and the second face constitutes a second supporting face , wherein the first supporting face supports the spring means in the first rotational position of the transverse beam and the second supporting face supports the spring means in the second rotational position of the transverse beam , wherein the first and second supporting faces are located at different distances from the rotational axis , so that the height of the bottom of the spring means relative to the chassis can be adjusted, characterized in that the first and second rotational positions are terminal rotational positions, wherein the transverse beam comprises retaining means to prevent the rotation of the transverse beam beyond the first and second positions, wherein the retaining means comprise first and second blocking parts , wherein the first blocking part prevents rotation of the transverse beam beyond the first rotational position by abutting against a third blocking part of the chassis , and wherein the second blocking part prevents rotation of the transverse beam beyond the second rotational position by abutting against a fourth blocking part of the chassis , and wherein the transverse beam is further delimited by third and fourth faces , wherein the first blocking part comprises the third face and the second blocking part comprises the fourth face . a. an upper surface for receiving a mattress, b. a chassis , c. an intermediate layer between the upper surface and the chassis for at least partly resiliently supporting the mattress on the upper surface , wherein the chassis is arranged to support the entirety of the intermediate layer and the mattress on the upper surface , resiliently supported by the intermediate layer , on a floor,