mhurhangee/patent-ind-claim-en huggingface dataset:
A method for producing hydrocarbons comprising, providing a hydrogen-containing feedstock component, providing a carbon-containing feedstock component, providing an electrocatalytic cell comprising a supported catalyst selected from the group consisting of Fe, Cu, Ni, Mn, V, Zn, Co, Fe/Co, alkali metal doped Fe/Co, alkali metal doped Co and mixtures thereof, supported on at least one of the support materials selected from the group consisting of yttria-stabilized zirconia supports, reticulated vitreous carbon foam supports, reticulated fibrous silicon carbide supports, zinc oxide foam supports, boron carbide supports, alumina, zirconia, and carbon and a barrier comprising a material permeable to oxygen ions and impermeable to at least CO 2 , CO, H 2 , H 2 O and hydrocarbons, contacting the hydrogen-containing feedstock component with the carbon-containing feedstock component at the catalyst, producing hydrocarbon and oxygen ions at the catalyst, conducting oxygen ions across the barrier whereupon the oxygen ions release their electrons to an electrical circuit, forming dioxygen molecules from the oxygen ions, removing dioxygen molecules from the electrocatalytic cell, and wherein at least one of the hydrogen-containing feedstock component and the carbon-containing feedstock component comprise oxygen-containing materials. providing a hydrogen-containing feedstock component, providing a carbon-containing feedstock component, providing an electrocatalytic cell comprising a supported catalyst selected from the group consisting of Fe, Cu, Ni, Mn, V, Zn, Co, Fe/Co, alkali metal doped Fe/Co, alkali metal doped Co and mixtures thereof, supported on at least one of the support materials selected from the group consisting of yttria-stabilized zirconia supports, reticulated vitreous carbon foam supports, reticulated fibrous silicon carbide supports, zinc oxide foam supports, boron carbide supports, alumina, zirconia, and carbon and a barrier comprising a material permeable to oxygen ions and impermeable to at least CO 2 , CO, H 2 , H 2 O and hydrocarbons, contacting the hydrogen-containing feedstock component with the carbon-containing feedstock component at the catalyst, producing hydrocarbon and oxygen ions at the catalyst, conducting oxygen ions across the barrier whereupon the oxygen ions release their electrons to an electrical circuit, forming dioxygen molecules from the oxygen ions, removing dioxygen molecules from the electrocatalytic cell, and
A resin composition comprising the following components (a) to (c): (a) at least one 2-methylene-1,3-dicarbonyl compound; (b) at least one type of conductive particles; and (c) at least one monocarboxylic acid with a number of carbon atoms of 3 or more. (a) at least one 2-methylene-1,3-dicarbonyl compound; (b) at least one type of conductive particles; and (c) at least one monocarboxylic acid with a number of carbon atoms of 3 or more.
A press forming method for forming a press formed part having a product shape that has a groove-shaped portion extending in a longitudinal direction and includes a flange portion curved along the longitudinal direction on at least one of a pair of side wall portions defining the groove-shaped portion , using a first press forming tool and a second press forming tool each including a side wall forming portion , a flange forming portion , and a joining portion that joins the flange forming portion to the side wall forming portion , characterized in that the press forming method comprises: a first forming step of forming the press formed part by using the first press forming tool having a line length in the cross-sectional direction of the joining portion contacting with a flange portion subjected to stretch flange deformation or a flange portion subjected to shrink flange deformation is a line length L 1 in the cross-sectional direction that is shorter than a line length L 2 , where the line length L 2 is a line length in a cross-sectional direction of the joining portion of the second press forming tool for making the product shape, in order to make a line length of the flange portion subjected to stretch flange deformation in a longitudinal direction longer than a line length of the flange portion of the product shape and to make a line length of the flange portion subjected to shrink flange deformation in the longitudinal direction shorter than the line length of the flange portion of the product shape; and a second forming step of forming the press formed part in the product shape by crash forming by using the second press forming tool in which the line length in the cross-sectional direction of the joining portion is L 2 . a first forming step of forming the press formed part by using the first press forming tool having a line length in the cross-sectional direction of the joining portion contacting with a flange portion subjected to stretch flange deformation or a flange portion subjected to shrink flange deformation is a line length L 1 in the cross-sectional direction that is shorter than a line length L 2 , where the line length L 2 is a line length in a cross-sectional direction of the joining portion of the second press forming tool for making the product shape, in order to make a line length of the flange portion subjected to stretch flange deformation in a longitudinal direction longer than a line length of the flange portion of the product shape and to make a line length of the flange portion subjected to shrink flange deformation in the longitudinal direction shorter than the line length of the flange portion of the product shape; and a second forming step of forming the press formed part in the product shape by crash forming by using the second press forming tool in which the line length in the cross-sectional direction of the joining portion is L 2 .
A turbine component comprising: a platform and an airfoil extending radially away from said platform , said airfoil extending from a leading edge (LE) to a trailing edge (TE); and a leading edge portion defining said leading edge (LE) of said airfoil and a trailing edge portion including said trailing edge (TE), said trailing edge portion also including said platform , and said leading edge portion being formed of a first material distinct from a second material forming said trailing edge portion wherein a lock is formed on one of said leading edge portion and said trailing edge portion , and the other of said trailing edge portion and said leading edge portion has ears which fit behind said lock to secure said one of said leading edge portion to said trailing edge portion , characterised in that : the turbine component is a turbine blade; said first material has an operating temperature capability at least 100°F (56°C) higher than that of said second material; and an angled attachment structure is formed on an opposed side of said platform relative to said airfoil and angled faces on said leading edge portion contact said angled attachment structure . a platform and an airfoil extending radially away from said platform , said airfoil extending from a leading edge (LE) to a trailing edge (TE); and a leading edge portion defining said leading edge (LE) of said airfoil and a trailing edge portion including said trailing edge (TE), said trailing edge portion also including said platform , and said leading edge portion being formed of a first material distinct from a second material forming said trailing edge portion wherein a lock is formed on one of said leading edge portion and said trailing edge portion , and the other of said trailing edge portion and said leading edge portion has ears which fit behind said lock to secure said one of said leading edge portion to said trailing edge portion , characterised in that : the turbine component is a turbine blade; said first material has an operating temperature capability at least 100°F (56°C) higher than that of said second material; and an angled attachment structure is formed on an opposed side of said platform relative to said airfoil and angled faces on said leading edge portion contact said angled attachment structure . the turbine component is a turbine blade; said first material has an operating temperature capability at least 100°F (56°C) higher than that of said second material; and an angled attachment structure is formed on an opposed side of said platform relative to said airfoil and angled faces on said leading edge portion contact said angled attachment structure .
Air conditioning device for a motor vehicle, comprising a housing with - a vaporiser for dehumidifying and cooling an airflow, - an air guiding element, downstream of the vaporiser in flow direction, for splitting the cooled and dehumidified airflow into at least a first and a second airflow portion, - a heat transmitter , downstream of the air guiding element in flow direction, for heating the first airflow portion, - a mixing chamber, in flow direction downstream of the heat transmitter on the one hand and of the air guiding element on the other hand, for mixing the first and second airflow portion, so that the housing has a plurality of zones of different zone relative temperature, wherein air guiding channels lead off from the housing that are designed to guide mixed air portions of different channel relative temperatures, wherein several air guiding channels are combined in portions to a channel bundle , resting directly on the housing , of parallel and directly adjacent individual channels of different channel relative temperatures, characterised in that the channel bundle runs along several zones of different zone relative temperatures and varies the distribution of the cross sections of its individual channels over their longitudinal extension as such that the cross section profiles of the individual channels overlap each other at each local portion as such that the contact areas of the individual channel portions with the housing are thus smaller the bigger the difference between their respective channel relative temperature and the zone relative temperature directly at the housing-side of the respective channel bundle portion. - a vaporiser for dehumidifying and cooling an airflow, - an air guiding element, downstream of the vaporiser in flow direction, for splitting the cooled and dehumidified airflow into at least a first and a second airflow portion, - a heat transmitter , downstream of the air guiding element in flow direction, for heating the first airflow portion, - a mixing chamber, in flow direction downstream of the heat transmitter on the one hand and of the air guiding element on the other hand, for mixing the first and second airflow portion,
An oral care appliance utilizing a non-linear resonant system, comprising: a longitudinal shaft ; a head located at a first end of the longitudinal shaft , moving with an oscillatory, rotational motion about a longitudinal axis of the longitudinal shaft ; and a handle located at a second end of the longitudinal shaft opposite the first end, the handle comprising a motor housed within the handle and operating at a substantially constant frequency and a substantially constant voltage, wherein: when the head is outside of the user's mouth and no mass (m) is applied to the head , the head has a first moment of inertia and the motor generates a first amplitude for the back and forth oscillation of the head ; and when the head is pressed against one or more of teeth, gums, cheek, oral mucosa, mouth soft tissue or saliva inside a user's mouth, mass (m) is applied to the head , such that the head has a second moment of inertia and the motor generates a second amplitude for the back and forth oscillation of the head , wherein the second amplitude is greater than the first amplitude . a longitudinal shaft ; a head located at a first end of the longitudinal shaft , moving with an oscillatory, rotational motion about a longitudinal axis of the longitudinal shaft ; and a handle located at a second end of the longitudinal shaft opposite the first end, the handle comprising a motor housed within the handle and operating at a substantially constant frequency and a substantially constant voltage, wherein: when the head is outside of the user's mouth and no mass (m) is applied to the head , the head has a first moment of inertia and the motor generates a first amplitude for the back and forth oscillation of the head ; and when the head is pressed against one or more of teeth, gums, cheek, oral mucosa, mouth soft tissue or saliva inside a user's mouth, mass (m) is applied to the head , such that the head has a second moment of inertia and the motor generates a second amplitude for the back and forth oscillation of the head , wherein the second amplitude is greater than the first amplitude . when the head is outside of the user's mouth and no mass (m) is applied to the head , the head has a first moment of inertia and the motor generates a first amplitude for the back and forth oscillation of the head ; and when the head is pressed against one or more of teeth, gums, cheek, oral mucosa, mouth soft tissue or saliva inside a user's mouth, mass (m) is applied to the head , such that the head has a second moment of inertia and the motor generates a second amplitude for the back and forth oscillation of the head , wherein the second amplitude is greater than the first amplitude .
A method comprising: discovering, by a wireless network mobile computing device , a wireless network audio broadcast device operable to broadcast a digital audio stream over a wireless personal area network, PAN, independent of whether any devices are connected to the wireless network audio broadcast device and independent of a request for the digital audio stream ; identifying, by the wireless network mobile computing device , information for receiving the digital audio stream over the wireless PAN directly from the wireless network audio broadcast device ; and transmitting, by the wireless network mobile computing device and to a wireless network audio listening device , the information for receiving the digital audio stream over the wireless PAN directly from the wireless network audio broadcast device . discovering, by a wireless network mobile computing device , a wireless network audio broadcast device operable to broadcast a digital audio stream over a wireless personal area network, PAN, independent of whether any devices are connected to the wireless network audio broadcast device and independent of a request for the digital audio stream ; identifying, by the wireless network mobile computing device , information for receiving the digital audio stream over the wireless PAN directly from the wireless network audio broadcast device ; and transmitting, by the wireless network mobile computing device and to a wireless network audio listening device , the information for receiving the digital audio stream over the wireless PAN directly from the wireless network audio broadcast device .
A device for delivering an electrical stimulus to nasal mucosa of a patient, comprising: a stimulator probe comprising a nasal insertion prong, a distal portion of the nasal insertion prong comprises first and second electrodes, wherein the first electrode is configured to deliver current; characterized in that a return contact is located on the stimulator probe at the base of the nasal insertion prong; and a user interface is configured to allow the patient to adjust an amount of current delivered between the first and second electrodes and between the first electrode and the return contact. a stimulator probe comprising a nasal insertion prong, a distal portion of the nasal insertion prong comprises first and second electrodes, wherein the first electrode is configured to deliver current; characterized in that a return contact is located on the stimulator probe at the base of the nasal insertion prong; and a user interface is configured to allow the patient to adjust an amount of current delivered between the first and second electrodes and between the first electrode and the return contact.
Method for the preparation of polyalkyl (meth)acrylate polymers consisting of: (a) 10 to 20% by weight of esters of (meth)acrylic acid and a hydroxylated hydrogenated polybutadiene; (b1) 45% to 60% by weight of C 1-4 alkyl (meth)acrylates; (b2) 10% to 25% by weight of C 10-15 alkyl methacrylates, more preferably C 12-14 alkyl methacrylates; (b3) 10% to 15% by weight of styrene; and (b4) 5% to 7% by weight of N-containing monomers selected from the group consisting of N,N-dimethylaminoethyl methacrylate (DMAEMA), N-(3-(dimethylamino)propyl)methacrylamide (DMAPMAm) and N-vinylpyrrolidinone (NVP), preferably DMAEMA, based on the total amount of the polyalkyl (meth)acrylate polymers, the method comprising the steps of: (i) preparing a monomer mixture 1 comprising 130 to 145% of the targeted content of monomers (a) and 90% to 96% of the targeted content of monomers (b), the concentration of the monomers in mixture 1 being 50 to 60%; (ii) adding a monomer mixture 2 comprising 50 to 60% of the targeted content of monomers (a) and 105% to 110% of the targeted content of monomers (b), the concentration of the monomers in mixture 2 being 50 to 60%; characterized in that monomer mixture 1 comprises 50 to 60% of the total amount of monomers used in the process and monomer mixture 2 comprises 40 to 50% of the total amount of monomers used in the process. (a) 10 to 20% by weight of esters of (meth)acrylic acid and a hydroxylated hydrogenated polybutadiene; (b1) 45% to 60% by weight of C 1-4 alkyl (meth)acrylates; (b2) 10% to 25% by weight of C 10-15 alkyl methacrylates, more preferably C 12-14 alkyl methacrylates; (b3) 10% to 15% by weight of styrene; and (b4) 5% to 7% by weight of N-containing monomers selected from the group consisting of N,N-dimethylaminoethyl methacrylate (DMAEMA), N-(3-(dimethylamino)propyl)methacrylamide (DMAPMAm) and N-vinylpyrrolidinone (NVP), preferably DMAEMA, based on the total amount of the polyalkyl (meth)acrylate polymers, (i) preparing a monomer mixture 1 comprising 130 to 145% of the targeted content of monomers (a) and 90% to 96% of the targeted content of monomers (b), the concentration of the monomers in mixture 1 being 50 to 60%; (ii) adding a monomer mixture 2 comprising 50 to 60% of the targeted content of monomers (a) and 105% to 110% of the targeted content of monomers (b), the concentration of the monomers in mixture 2 being 50 to 60%;
A center bearing comprising: a rubber like elastic body having a shaft hole part configured to axially support a propeller shaft ; and a bracket configured to retain the rubber like elastic body to a chassis, the rubber like elastic body being formed in a rectangular shape, and the bracket being formed in a rectangular shape such that the bracket covers the rubber like elastic body of the rectangular shape, characterized in that concave grooves are formed at an upper and lower side portions of the rubber like elastic body , respectively, each concave groove is formed in a center of the upper and the lower side portion of the rubber like elastic body, respectively, metal plates are embedded along a right and left side portions of the rubber like elastic body , respectively, and a slit configured to absorb a displacement in right and left direction of the propeller shaft is formed between each of the metal plates and the shaft hole part in the rubber like elastic body . a rubber like elastic body having a shaft hole part configured to axially support a propeller shaft ; and a bracket configured to retain the rubber like elastic body to a chassis, the rubber like elastic body being formed in a rectangular shape, and the bracket being formed in a rectangular shape such that the bracket covers the rubber like elastic body of the rectangular shape, characterized in that concave grooves are formed at an upper and lower side portions of the rubber like elastic body , respectively, each concave groove is formed in a center of the upper and the lower side portion of the rubber like elastic body, respectively, metal plates are embedded along a right and left side portions of the rubber like elastic body , respectively, and a slit configured to absorb a displacement in right and left direction of the propeller shaft is formed between each of the metal plates and the shaft hole part in the rubber like elastic body .
A heat exchanger comprising: a plurality of flat-plate-shaped fins each being provided with a plurality of cutaway portions arranged at a predetermined pitch; and a heat transfer tube composed of aluminum, the heat transfer tube having straight portions to be attached to the cutaway portions of the fins and a hairpin portion that is bent and connected to the straight portions at ends thereof, wherein a heat-exchanger sacrificial-anode layer formed of zinc is formed on an outer surface of the heat transfer tube , characterized in that the heat exchanger comprises a lifetime diagnosis component for anticorrosive coating, comprising a plate-shaped base member having, on a surface thereof, an aluminum layer; and a sacrificial anode layer formed of zinc on the base member , the base member having, on the surface thereof, a base-member exposing portion (31 A, 92) in which the aluminum layer is exposed, and wherein the lifetime diagnosis component for anticorrosive coating is mounted to the heat transfer tube . a plurality of flat-plate-shaped fins each being provided with a plurality of cutaway portions arranged at a predetermined pitch; and a heat transfer tube composed of aluminum, the heat transfer tube having straight portions to be attached to the cutaway portions of the fins and a hairpin portion that is bent and connected to the straight portions at ends thereof, wherein a heat-exchanger sacrificial-anode layer formed of zinc is formed on an outer surface of the heat transfer tube , characterized in that the heat exchanger comprises a lifetime diagnosis component for anticorrosive coating, comprising a plate-shaped base member having, on a surface thereof, an aluminum layer; and a sacrificial anode layer formed of zinc on the base member , the base member having, on the surface thereof, a base-member exposing portion (31 A, 92) in which the aluminum layer is exposed, and wherein the lifetime diagnosis component for anticorrosive coating is mounted to the heat transfer tube .
Busbar system, comprising a plurality of bar modules which are situated one behind the other and are connected to one another by means of clamping brackets , wherein each bar module has a plurality of busbars which are arranged parallel to one another at a distance (A) and which have recesses , which are open on one side, at both ends , said recesses running in the longitudinal extent at one end of the bar module and running transversely to the longitudinal extent at the other end , wherein, for the purpose of electrically connecting two bar modules , the bar module end of one bar module is plugged into one of the clamping brackets by way of the recesses which run in the longitudinal extent, and the bar module end of the other bar module with the recesses which run transversely to the longitudinal extent is suspended in this clamping bracket on the opposite side, wherein in each case one busbar of one bar module bears laterally against a busbar of the other bar module , and wherein the recesses , as seen from the side, form a passage opening through which a clamping element which is supported against the clamping bracket runs, said clamping element pressing the sides of the busbars , which sides bear against one another, against one another.