mhurhangee/patent-ind-claim-en huggingface dataset:
Gas-powered drive system, comprising a drive (A) having a first chamber and a second chamber , which are mutually separated by a movable working element of the drive (A), in particular by a piston , an exhaust air throttle and a control valve , wherein one chamber of the two chambers for forming a chamber driving the working element is connectable to a gas source , and the other chamber of the two chambers for forming a chamber counteracting the movement of the working element is simultaneously connectable via the exhaust air throttle to a gas sink , in particular by means of a switchover valve , wherein the driving chamber is assigned the control valve through which the driving chamber is able to be filled with gas from the gas source , wherein the opening cross section of the control valve is adjustable as a function of a control pressure prevailing in the flow direction ahead of the exhaust air throttle or decreasing over the exhaust air throttle , wherein the opening cross section is able to be enlarged by the control valve when a first limit pressure is undershot in the case of a decreasing control pressure, and characterized in that the opening cross section is able to be reduced, the control valve in particular being able to be closed, when a second limit pressure is undershot in the case of a further decreasing control pressure. a first chamber and a second chamber , which are mutually separated by a movable working element of the drive (A), in particular by a piston , an exhaust air throttle and a control valve , wherein one chamber of the two chambers for forming a chamber driving the working element is connectable to a gas source , and the other chamber of the two chambers for forming a chamber counteracting the movement of the working element is simultaneously connectable via the exhaust air throttle to a gas sink , in particular by means of a switchover valve , wherein the driving chamber is assigned the control valve through which the driving chamber is able to be filled with gas from the gas source , wherein the opening cross section of the control valve is adjustable as a function of a control pressure prevailing in the flow direction ahead of the exhaust air throttle or decreasing over the exhaust air throttle , wherein the opening cross section is able to be enlarged by the control valve when a first limit pressure is undershot in the case of a decreasing control pressure, and characterized in that the opening cross section is able to be reduced, the control valve in particular being able to be closed, when a second limit pressure is undershot in the case of a further decreasing control pressure.
Tyre tread having a rubber composition based on at least one natural or synthetic polyisoprene, at a content ranging from 50 phr to 100 phr, a reinforcing filler predominantly comprising an inorganic filler by weight, a coupling agent, a plasticizing agent at a content of less than or equal to 10 phr and a sulfur-based crosslinking system, characterized in that the coupling agent consists of a silane polysulfide and in that the silane content of the composition ranges from 12% to 20% by weight relative to the amount of inorganic filler.
A method comprising: receiving, by a network device , a hardware component that has been coupled to the network device, the network device having been manufactured by a manufacturer and the hardware component having been developed by a third party developer different than the manufacturer; receiving, by the network device, data for an application programming interface, API, for the hardware component; executing, by the network device, the API for the hardware component to grant the hardware component secure access to hardware resources of the network device via the API; the method characterized by : tuning the hardware component to the network device according to a configuration of the network device. receiving, by a network device , a hardware component that has been coupled to the network device, the network device having been manufactured by a manufacturer and the hardware component having been developed by a third party developer different than the manufacturer; receiving, by the network device, data for an application programming interface, API, for the hardware component; executing, by the network device, the API for the hardware component to grant the hardware component secure access to hardware resources of the network device via the API; the method characterized by : tuning the hardware component to the network device according to a configuration of the network device.
A conductive structure comprising: a substrate ; a metal layer provided on the substrate ; and a light reflection reducing layer comprising a copper-nickel oxide provided on at least one surface of the metal layer , characterized in that the light reflection reducing layer has copper content of 15 at% or more and 55 at% or less; the light reflection reducing layer has nickel content of 1 at% or more and 30 at% or less, and in the light reflection reducing layer , a ratio of the nickel content to the copper content (Ni (at%)/Cu (at%)) is 0.01 or more and 1.8 or less. a substrate ; a metal layer provided on the substrate ; and a light reflection reducing layer comprising a copper-nickel oxide provided on at least one surface of the metal layer , characterized in that the light reflection reducing layer has copper content of 15 at% or more and 55 at% or less; the light reflection reducing layer has nickel content of 1 at% or more and 30 at% or less, and in the light reflection reducing layer , a ratio of the nickel content to the copper content (Ni (at%)/Cu (at%)) is 0.01 or more and 1.8 or less.
Folding cover for a roof area of a machine, comprising a cover surface comprising a material panel which has folding edges provided for forming internal folds and external folds in alternation each with a fold section inbetween, wherein the cover surface is connected to support profiles which are supported in each case at the ends in displaceable manner on opposing guide strips , whereby the extended length (L) of the cover surface (20 can be changed by changing an angle (a) included in each case between two fold sections , characterised in that the cover surface is connected to the support profiles via at least some of its fold sections , wherein a connecting region between a support profile and a fold section , delimited by two folding edges , is situated in each case between these folding edges .
A hose connector for a hose , comprising: a body portion defining an outer thread section ; an engagement portion defined with the body portion , wherein the engagement portion is adapted to allow the hose to be pushed on; one or more mating elements defined on at least a part of the engagement portion , wherein the one or more mating elements are adapted to allow engagement of the hose with the hose connector ; the engagement portion comprises at least a first part and a second part , wherein the first part is defined around an end of the engagement portion which is opposite to the body portion , and comprises the one or more mating elements in form of a helix element extending at least partially across the first part , and wherein a surface of the second part of the engagement portion does not exhibit any mating element and has an outer diameter at least equal to an outermost diameter (D6) of the helix element ; characterized in that: the extension of the helix element over the first part stops abruptly such that the helix element defines a stepped end towards the second part having a planar end surface. a body portion defining an outer thread section ; an engagement portion defined with the body portion , wherein the engagement portion is adapted to allow the hose to be pushed on; one or more mating elements defined on at least a part of the engagement portion , wherein the one or more mating elements are adapted to allow engagement of the hose with the hose connector ; the engagement portion comprises at least a first part and a second part , wherein the first part is defined around an end of the engagement portion which is opposite to the body portion , and comprises the one or more mating elements in form of a helix element extending at least partially across the first part , and wherein a surface of the second part of the engagement portion does not exhibit any mating element and has an outer diameter at least equal to an outermost diameter (D6) of the helix element ; characterized in that: the extension of the helix element over the first part stops abruptly such that the helix element defines a stepped end towards the second part having a planar end surface.
An implantable device, comprising: a sensor configured to detect an amount of an analyte, a pH, a temperature, a strain, or a pressure; and an ultrasonic transducer with a length of about 5 mm or less in the longest dimension, characterised in that the ultrasonic transducer is configured to receive a current modulated based on the analyte amount, the pH, the temperature, the strain, or the pressure detected by the sensor, and emit an ultrasonic backscatter based on the received current. a sensor configured to detect an amount of an analyte, a pH, a temperature, a strain, or a pressure; and an ultrasonic transducer with a length of about 5 mm or less in the longest dimension, characterised in that the ultrasonic transducer is configured to receive a current modulated based on the analyte amount, the pH, the temperature, the strain, or the pressure detected by the sensor, and emit an ultrasonic backscatter based on the received current.
A wireless apparatus, comprising: a processor ; and a non-transitory computer readable storage medium storing programming for execution by the processor, the programming, when executed by the processor, instructing the wireless apparatus to: receive an uplink orthogonal frequency division multiple access, OFDMA, frame over a 20 megahertz, MHz, frequency channel, wherein the uplink OFDMA frame includes a 256 tone payload consisting of 234 tones carried in a plurality of resource units, RUs and 22 tones excluded from the plurality of RUs and carries a plurality of tones over the 20MHz frequency channel, the plurality of tones comprises data tones and pilot tones, and the data tones and the pilot tones are partitioned into a plurality of resource units, RUs, wherein the plurality of RUs comprises at least one first RU and at least one second RU, wherein each of the at least one first RU consists of 24 data tones and 2 pilot tones, each of the at least one second RU consists of 48 data tones and 4 pilot tones. receive an uplink orthogonal frequency division multiple access, OFDMA, frame over a 20 megahertz, MHz, frequency channel, wherein the uplink OFDMA frame includes a 256 tone payload consisting of 234 tones carried in a plurality of resource units, RUs and 22 tones excluded from the plurality of RUs and carries a plurality of tones over the 20MHz frequency channel, the plurality of tones comprises data tones and pilot tones, and the data tones and the pilot tones are partitioned into a plurality of resource units, RUs, wherein the plurality of RUs comprises at least one first RU and at least one second RU, wherein each of the at least one first RU consists of 24 data tones and 2 pilot tones, each of the at least one second RU consists of 48 data tones and 4 pilot tones.
A multilayer film comprising: a first layer comprising an interpenetrating network, the interpenetrating network comprising: a first thermoplastic polymer selected from the group consisting of a polyurethane, polycarbonate, polycaprolactone, and a combination thereof, crosslinked components selected from the group consisting of triallyl isocyanurate (TAIC), triethylolpropane triacrylate (TMPTA), and di-trimethylolpropanetetraacrylate (DTMPTA), and tri-functional methacrylate, and a photoinitiator, wherein the interpenetrating network comprises 65% to 75% by weight of the first thermoplastic polymer and 20% to 30% by weight of the crosslinked components; and a second layer comprising one or more layers of a second thermoplastic polymer, wherein the second thermoplastic polymer is selected from the group consisting of a polyurethane, polycarbonate, polycaprolactone, and a combination thereof. a first thermoplastic polymer selected from the group consisting of a polyurethane, polycarbonate, polycaprolactone, and a combination thereof, crosslinked components selected from the group consisting of triallyl isocyanurate (TAIC), triethylolpropane triacrylate (TMPTA), and di-trimethylolpropanetetraacrylate (DTMPTA), and tri-functional methacrylate, and a photoinitiator, wherein the interpenetrating network comprises 65% to 75% by weight of the first thermoplastic polymer and 20% to 30% by weight of the crosslinked components; and a second layer comprising one or more layers of a second thermoplastic polymer, wherein the second thermoplastic polymer is selected from the group consisting of a polyurethane, polycarbonate, polycaprolactone, and a combination thereof.
A separator comprising: a porous substrate; an organic-inorganic composite inner layer disposed on at least one surface of the porous substrate and comprising a first binder polymer and inorganic particles; and a porous polymer outer layer disposed on the organic-inorganic composite inner layer and consisting of a second binder polymer; wherein the organic-inorganic composite inner layer has pores or interstitial volumes formed between the inorganic particles; and wherein the loading amount of the porous polymer outer layer is in the range of 0.1 to 3.0 g/m 2 . a porous substrate; an organic-inorganic composite inner layer disposed on at least one surface of the porous substrate and comprising a first binder polymer and inorganic particles; and a porous polymer outer layer disposed on the organic-inorganic composite inner layer and consisting of a second binder polymer; wherein the organic-inorganic composite inner layer has pores or interstitial volumes formed between the inorganic particles; and wherein the loading amount of the porous polymer outer layer is in the range of 0.1 to 3.0 g/m 2 .
Method for the preparation of a honeycomb catalyst comprising the steps of (a) providing a substrate in form of one or more sheets of non-woven fibrous material; (b) pre-coating the substrate with an aqueous pre-coat suspension comprising ceramic material and one or more binders in an amount resulting in total weight of the substrate and pre-coat of between 60 and 120 g/m 2 ; (c) corrugating the pre-coated substrate; (d) rolling-up or stacking up the pre-coated and corrugated substrate into a spiral-wound cylindrical body or a staked up rectangular body; (e) washcoating the cylindrical or rectangular body of step (d) with a catalyst carrier washcoat, containing one or more catalytic active components or precursors thereof; and (f) drying and optionally calcining the washcoated body of step (e); or alternatively (g) washcoating the cylindrical or rectangular body of step (d) with a catalyst carrier washcoat and impregnating the washcoated body with a solution of the one or more catalytic active components or precursors thereof; and (h) drying and calcining the wash coated body of step (g). (a) providing a substrate in form of one or more sheets of non-woven fibrous material; (b) pre-coating the substrate with an aqueous pre-coat suspension comprising ceramic material and one or more binders in an amount resulting in total weight of the substrate and pre-coat of between 60 and 120 g/m 2 ; (c) corrugating the pre-coated substrate; (d) rolling-up or stacking up the pre-coated and corrugated substrate into a spiral-wound cylindrical body or a staked up rectangular body; (e) washcoating the cylindrical or rectangular body of step (d) with a catalyst carrier washcoat, containing one or more catalytic active components or precursors thereof; and (f) drying and optionally calcining the washcoated body of step (e); or alternatively (g) washcoating the cylindrical or rectangular body of step (d) with a catalyst carrier washcoat and impregnating the washcoated body with a solution of the one or more catalytic active components or precursors thereof; and (h) drying and calcining the wash coated body of step (g).
A composition for forming a hydrogen peroxide based emulsion explosive which composition comprises; - an oxidizer-phase comprising at least 35% by weight of hydrogen peroxide and at least 25% by weight of water, - a fuel-phase comprising at least one primary oil type fuel with a flash point below 100 °C and at least one secondary oil type fuel with a flash point over 150° C, and - at least one emulsifier, wherein the oxidizer-phase is discontinuously dispersed throughout the continuous fuel-phase. - an oxidizer-phase comprising at least 35% by weight of hydrogen peroxide and at least 25% by weight of water, - a fuel-phase comprising at least one primary oil type fuel with a flash point below 100 °C and at least one secondary oil type fuel with a flash point over 150° C, and - at least one emulsifier, wherein
A compact cell (Z) having a protective enclosure for welding operations and/or cutting operations by means of welding robots , the compact cell (Z) comprising: a cell roof and at least one cell side wall , wherein the cell side wall is connected to the cell roof ; the protective enclosure , comprising at least the cell roof and the at least one cell side wall ; and at least a first (A1) and a second (A2) working area for welding operations; characterized in that : the protective enclosure is configured to be at least in both directions movable and in a first position encloses the first working area (A1) and exposes the second working area (A2) and in a second position encloses the second working area (A2) and exposes the first working area (A1). a cell roof and at least one cell side wall , wherein the cell side wall is connected to the cell roof ; the protective enclosure , comprising at least the cell roof and the at least one cell side wall ; and at least a first (A1) and a second (A2) working area for welding operations; characterized in that : the protective enclosure is configured to be at least in both directions movable and in a first position encloses the first working area (A1) and exposes the second working area (A2) and in a second position encloses the second working area (A2) and exposes the first working area (A1).
A delivery nozzle for aerosol and solvent comprising: a substantially cylindrical nozzle body defining an aerosol passage and a solvent passage therethrough, wherein the aerosol and solvent passages each extend from an inlet end of the nozzle body to an outlet end at the opposite end of the nozzle body to the inlet end thereof, wherein the inlet end of the nozzle body includes a mounting flange configured to mount the nozzle body in a device for delivering aerosol through the aerosol passage and for delivering solvent through the solvent passage ; wherein the aerosol passage is lined with a gold coating layer; and/or the delivery nozzle further comprises a capillary disposed within the solvent passage. a substantially cylindrical nozzle body defining an aerosol passage and a solvent passage therethrough, wherein the aerosol and solvent passages each extend from an inlet end of the nozzle body to an outlet end at the opposite end of the nozzle body to the inlet end thereof, wherein the inlet end of the nozzle body includes a mounting flange configured to mount the nozzle body in a device for delivering aerosol through the aerosol passage and for delivering solvent through the solvent passage ; wherein the aerosol passage is lined with a gold coating layer; and/or the delivery nozzle further comprises a capillary disposed within the solvent passage.
A rotation adapter receiver for a minimally invasive surgical apparatus , the rotation adapter receiver comprising: opposing beams (218, 220; 232, 234; 246, 248); a proximal bushing coupled between the opposing beams (218, 220; 232, 234; 246, 248), the proximal bushing being configured to support a proximal journal of a rotation adapter ; a distal bushing coupled between the opposing beams (218, 220; 232, 234; 246, 248), the distal bushing being configured to support a distal journal of the rotation adapter ; and a rotation constraint coupled between the opposing beams (218, 220; 232, 234; 246, 248) and positioned between the proximal bushing and the distal bushing , the rotation constraint being configured to be deformed by a rotation index of the rotation adapter imparting deformation stress into the rotation constraint ; characterized in that at least one of the opposing beams (218, 220; 232, 234; 246, 248) defines at least one flexure void between the rotation constraint and at least one of the proximal bushing and the distal bushing ; and wherein the deformation stress is dissipated into the opposing beams (218, 220; 232, 234; 246, 248) and attenuated in an area of the opposing beams (218, 220; 232, 234; 246, 248) near the at least one flexure void . opposing beams (218, 220; 232, 234; 246, 248); a proximal bushing coupled between the opposing beams (218, 220; 232, 234; 246, 248), the proximal bushing being configured to support a proximal journal of a rotation adapter ; a distal bushing coupled between the opposing beams (218, 220; 232, 234; 246, 248), the distal bushing being configured to support a distal journal of the rotation adapter ; and a rotation constraint coupled between the opposing beams (218, 220; 232, 234; 246, 248) and positioned between the proximal bushing and the distal bushing , the rotation constraint being configured to be deformed by a rotation index of the rotation adapter imparting deformation stress into the rotation constraint ; characterized in that at least one of the opposing beams (218, 220; 232, 234; 246, 248) defines at least one flexure void between the rotation constraint and at least one of the proximal bushing and the distal bushing ; and wherein the deformation stress is dissipated into the opposing beams (218, 220; 232, 234; 246, 248) and attenuated in an area of the opposing beams (218, 220; 232, 234; 246, 248) near the at least one flexure void .