mhurhangee/patent-ind-claim-en huggingface dataset:
Rubber composition based on at least one elastomer comprising epoxide functions, at least one reinforcing filler, a crosslinking system comprising a polycarboxylic acid of general formula (I) in which A represents a covalent bond or a hydrocarbon group comprising at least 1 carbon atom which is optionally substituted and optionally interrupted by one or more heteroatoms, and an imidazole of general formula (II) in which - R 1 represents a hydrocarbon group or a hydrogen atom, - R 2 represents a hydrocarbon group, - R 3 and R 4 represent, independently of each other, a hydrogen atom or a hydrocarbon group, or else R 3 and R 4 form, together with the carbon atoms of the imidazole ring to which they are attached, a ring, and at least one polyphenolic compound of general formula (III) in which: - R represents a hydrogen atom, or a group chosen from carboxyl, hydrogenocarbonyl and hydroxyl groups, or a radical chosen from alkyl, cycloalkylalkyl, aryl, aralkyl, aryloxy, alkoxy, carboxylalkyl, carbonylalkyl, alkylcarbonyl, arylcarbonyl and aminoalkyl radicals, these radicals optionally being substituted; - Z represents a divalent CH 2 or C=O radical. - R 1 represents a hydrocarbon group or a hydrogen atom, - R 2 represents a hydrocarbon group, - R 3 and R 4 represent, independently of each other, a hydrogen atom or a hydrocarbon group, or else R 3 and R 4 form, together with the carbon atoms of the imidazole ring to which they are attached, a ring, - R represents a hydrogen atom, or a group chosen from carboxyl, hydrogenocarbonyl and hydroxyl groups, or a radical chosen from alkyl, cycloalkylalkyl, aryl, aralkyl, aryloxy, alkoxy, carboxylalkyl, carbonylalkyl, alkylcarbonyl, arylcarbonyl and aminoalkyl radicals, these radicals optionally being substituted; - Z represents a divalent CH 2 or C=O radical.
A foamed cold-in-place recycling method comprising: producing a foamed asphalt binder by injecting one or more of water and a compressed air stream into a stream of liquid asphalt being at a temperature of 148.9 °C (300 °F) to 193.3 °C (380 °F) containing a lubricating surfactant; combining the foamed asphalt binder with bituminous material in a continuous mixing process to produce a recycled bituminous mix; conveying the recycled bituminous mix into a paver; and laying the recycled bituminous mix onto an existing grade. producing a foamed asphalt binder by injecting one or more of water and a compressed air stream into a stream of liquid asphalt being at a temperature of 148.9 °C (300 °F) to 193.3 °C (380 °F) containing a lubricating surfactant; combining the foamed asphalt binder with bituminous material in a continuous mixing process to produce a recycled bituminous mix; conveying the recycled bituminous mix into a paver; and laying the recycled bituminous mix onto an existing grade.
A method for manufacturing a film, wherein said film has a basis weight of less than 50 g/m 2 and wherein the density of the film is higher than 750 kg/m 3 comprising the steps of: providing a suspension comprising at least 30 weight % microfibrillated cellulose (MFC) based on the total weight of solids of the suspension forming a web of said suspension on a substrate; surface sizing said web, wherein the web, at the beginning of the surface sizing step, has a moisture content in the range of from 10 to 50 wt-%; drying said surface sized web to a final moisture content of between 0.1- 20 wt-% to form said film. providing a suspension comprising at least 30 weight % microfibrillated cellulose (MFC) based on the total weight of solids of the suspension forming a web of said suspension on a substrate; surface sizing said web, wherein the web, at the beginning of the surface sizing step, has a moisture content in the range of from 10 to 50 wt-%; drying said surface sized web to a final moisture content of between 0.1- 20 wt-% to form said film.
An analysis apparatus comprising: heating furnace comprising a heating furnace main body having a tubular member and a tubular block body provided above the tubular member , the heating furnace containing a sample (X); a filter member formed in a tubular shape through which gas produced from the sample (X) heated in the sample containing part (R) passes; and a gas flow path (L1) adapted to lead the gas having passed through the filter member to an analyzer, wherein: the filter member comprises in one end part a gas lead-out port connecting to the gas flow path (L1), and the filter member is provided in the block body to partition an internal space of the block body into an inner internal space (S1) and an outer internal space (S2), wherein the inner internal space (S1) is communicatively connected with the gas flow path (L1), and the outer internal space (S2) is communicatively connected with an internal space of the tubular member , the gas flow path being configured such that the gas passes through a side wall part of the filter member from the outer internal space (S2) to the inner internal space (S1), and flows from the gas lead-out port to the gas flow path (L1). heating furnace comprising a heating furnace main body having a tubular member and a tubular block body provided above the tubular member , the heating furnace containing a sample (X); a filter member formed in a tubular shape through which gas produced from the sample (X) heated in the sample containing part (R) passes; and a gas flow path (L1) adapted to lead the gas having passed through the filter member to an analyzer, wherein: the filter member comprises in one end part a gas lead-out port connecting to the gas flow path (L1), and the filter member is provided in the block body to partition an internal space of the block body into an inner internal space (S1) and an outer internal space (S2), wherein the inner internal space (S1) is communicatively connected with the gas flow path (L1), and the outer internal space (S2) is communicatively connected with an internal space of the tubular member , the gas flow path being configured such that the gas passes through a side wall part of the filter member from the outer internal space (S2) to the inner internal space (S1), and flows from the gas lead-out port to the gas flow path (L1).
A peristaltic pump of an apparatus for extracorporeal blood treatment, especially of a dialysis machine, for delivering fluid in the apparatus, said peristaltic pump comprising a rotor driven to rotate about a rotor axis and a pump casing surrounding the rotor at least in part and having a supporting surface which is configured to be curved around the rotor axis and which is formed on an inner wall bent in horse-shoe shape which is connected to a likewise bent outer wall via braces , wherein an elastically deformable fluid line is adapted to be positioned between the rotor and the supporting surface and is deformed between the rotor and the supporting surface when forming a cross-sectional constriction for delivering fluid by rotation of the rotor , wherein the pump casing has a modular design and includes at least a first supporting surface module configuring the supporting surface and at least a second casing module to be coupled to the former and at least partly surrounding or receiving the rotor , and wherein the supporting surface module comprises at least one standardized interface for coupling to the casing module and/or to a mounting module and/or to a casing element of the apparatus.
A brake disk , the brake disk defining an annular shape having a radially inner side and a radially outer side; the brake disk comprising: a radially outer braking surface , the braking surface having a maximum operating temperature; and the brake disk characterised by comprising: a fusible material section radially inward from and connected to the braking surface, the fusible material having a maximum operating temperature, the fusible material section for transmitting torque between the braking surface and a shaft while a temperature of the fusible material section is below the maximum operating temperature of the fusible material section; wherein the maximum operating temperature of the braking surface is higher than the maximum operating temperature of the fusible material section; and wherein when the temperature of the fusible material section raises above the maximum operating temperature of the fusible material section, the fusible material section is configured to no longer transmit torque between the braking surface and the shaft. a fusible material section radially inward from and connected to the braking surface, the fusible material having a maximum operating temperature, the fusible material section for transmitting torque between the braking surface and a shaft while a temperature of the fusible material section is below the maximum operating temperature of the fusible material section; wherein the maximum operating temperature of the braking surface is higher than the maximum operating temperature of the fusible material section; and wherein when the temperature of the fusible material section raises above the maximum operating temperature of the fusible material section, the fusible material section is configured to no longer transmit torque between the braking surface and the shaft.
A tugger train comprising a towing tractor and a plurality of trailers connected to the towing tractor in an articulated manner for carrying loads, including: - a speed sensor for detecting a speed of the towing tractor, - a steering angle sensor for detecting a steering angle of the towing tractor, - acquiring means for acquiring information relating to a weight of a load carried by one or more of the plurality of trailers, and - a control unit configured to perform a stability control by imposing a limitation to the speed of the towing tractor based on an analysis of the speed of the towing tractor detected by the speed sensor , the steering angle of the towing tractor detected by the steering angle sensor and the information relating to a weight acquired by the acquiring means , characterized in that the acquiring means include a weight input interface and are configured to acquire the information relating to a weight by receiving a weight indication inputted by a user of the towing tractor by means of the weight input interface , wherein the control unit is configured to acquire a predefined total weight stored in a memory as the information relating to a weight, if the weight user interface does not receive any input from the user relating to the weight after the expiration of timer started upon switching on the towing tractor or if no input is received at the weight user interface in the time between switching on the towing tractor and the time in which the towing tractor starts to move. - a speed sensor for detecting a speed of the towing tractor, - a steering angle sensor for detecting a steering angle of the towing tractor, - acquiring means for acquiring information relating to a weight of a load carried by one or more of the plurality of trailers, and - a control unit configured to perform a stability control by imposing a limitation to the speed of the towing tractor based on an analysis of the speed of the towing tractor detected by the speed sensor , the steering angle of the towing tractor detected by the steering angle sensor and the information relating to a weight acquired by the acquiring means , characterized in that the acquiring means include a weight input interface and are configured to acquire the information relating to a weight by receiving a weight indication inputted by a user of the towing tractor by means of the weight input interface , wherein the control unit is configured to acquire a predefined total weight stored in a memory as the information relating to a weight, if the weight user interface does not receive any input from the user relating to the weight after the expiration of timer started upon switching on the towing tractor or if no input is received at the weight user interface in the time between switching on the towing tractor and the time in which the towing tractor starts to move.
A polymeric construction profile being a window or door profile, said construction profile defining an inner cavity , the polymeric construction profile having an outer surface comprising unexposed side portions and exposed side portions , whereby a stiffening profile is provided external of said polymeric construction profile and fixed at an unexposed side portion thereof, said stiffening profile having a length (L) larger than its width (W), said width (W) being larger than its thickness (H), said stiffening profile comprising a polymeric material and a reinforcement material, the stiffening profile having a tensile modulus in its length (L) direction of at least 5 GPa according to EN2561 and the polymeric material having a lambda value of maximum 2 W/mK, characterized in that said stiffening profile comprises at least two longitudinal reinforced edges comprising the reinforcement material, the at least two longitudinal reinforced edges extending parallel one to another and being connected by a web of the polymeric material.
An actinic ray-sensitive or radiation-sensitive resin composition comprising: a resin including a repeating unit (a) represented by Formula (I-1) and a repeating unit (b) having a group in which a protective group including an aliphatic monocyclic ring leaves due to an action of an acid to generate a polar group; and a compound that generates an acid due to irradiation with an actinic ray or radiation, in the formula, R 11 and R 12 each independently represent a hydrogen atom or an alkyl group, R 13 represents a hydrogen atom or an alkyl group, or is a single bond or an alkylene group, and is bonded to L or Ar in the formula to form a ring, L represents a single bond or a divalent linking group, Ar represents an aromatic ring, and n represents an integer of 2 or more. a resin including a repeating unit (a) represented by Formula (I-1) and a repeating unit (b) having a group in which a protective group including an aliphatic monocyclic ring leaves due to an action of an acid to generate a polar group; and a compound that generates an acid due to irradiation with an actinic ray or radiation, in the formula, R 11 and R 12 each independently represent a hydrogen atom or an alkyl group, R 13 represents a hydrogen atom or an alkyl group, or is a single bond or an alkylene group, and is bonded to L or Ar in the formula to form a ring, L represents a single bond or a divalent linking group, Ar represents an aromatic ring, and n represents an integer of 2 or more. R 11 and R 12 each independently represent a hydrogen atom or an alkyl group, R 13 represents a hydrogen atom or an alkyl group, or is a single bond or an alkylene group, and is bonded to L or Ar in the formula to form a ring, L represents a single bond or a divalent linking group, Ar represents an aromatic ring, and n represents an integer of 2 or more.
A method to manufacture an electronic component, comprising the following steps: - providing a planar component , - providing a cap , - arranging a porous and fluid-permeable, particularly gas-permeable, sealing element on the cap or on the component , comprising - the manufacture of the porous and fluid-permeable sealing element by arranging an alloy containing a first alloy component and a second alloy component on the cap or on the component , and - a subsequent etching of the second alloy component, such that the first alloy component remains and thereby forms the porous and fluid-permeable sealing element ; - arranging the component and the cap in relation to one another such that the sealing element is arranged between the cap and the component and is in contact with both the cap and the component , and that an intermediate space between the cap and the component is bounded at least sectionally by the porous and fluid-permeable sealing element , - first bonding of the component and the cap by applying a first bonding pressure and/or a first bonding temperature in such a way to create a mechanically durable connection between the component and the cap , - exposing the cap and the component to a fluid, particularly a gas atmosphere, or to a vacuum, after the first bonding, with fluid or gas flowing through pores in the sealing element into the intermediate space or escaping from it, - second bonding of the component and the cap by applying a second bonding pressure and/or a second bonding temperature, thereby closing the pores of the sealing element and sealing the intermediate space . - providing a planar component , - providing a cap , - arranging a porous and fluid-permeable, particularly gas-permeable, sealing element on the cap or on the component , comprising - the manufacture of the porous and fluid-permeable sealing element by arranging an alloy containing a first alloy component and a second alloy component on the cap or on the component , and - a subsequent etching of the second alloy component, such that the first alloy component remains and thereby forms the porous and fluid-permeable sealing element ; - arranging the component and the cap in relation to one another such that the sealing element is arranged between the cap and the component and is in contact with both the cap and the component , and that an intermediate space between the cap and the component is bounded at least sectionally by the porous and fluid-permeable sealing element , - first bonding of the component and the cap by applying a first bonding pressure and/or a first bonding temperature in such a way to create a mechanically durable connection between the component and the cap , - exposing the cap and the component to a fluid, particularly a gas atmosphere, or to a vacuum, after the first bonding, with fluid or gas flowing through pores in the sealing element into the intermediate space or escaping from it, - second bonding of the component and the cap by applying a second bonding pressure and/or a second bonding temperature, thereby closing the pores of the sealing element and sealing the intermediate space .
A method of wireless communication performed by an evolved node B, eNB, the method comprising: transmitting a first message to reconfigure an uplink transmission mode of a user equipment, UE, from a first uplink transmission mode to a second uplink transmission mode; and implementing a reconfiguration scheme to assure at least one of two or more second control messages are recognizable by the UE during a transition period after transmission of the first message, wherein the transition period continues until the UE confirms successful transition to the second uplink transmission mode or the transition period continues for a duration defined by the eNB; and wherein the first uplink transmission mode is a single antenna port mode compatible with a LTE Rel-8 UE, and wherein the first uplink transmission mode does not support aperiodic sounding reference signal and the second uplink transmission mode supports dynamic aperiodic sounding reference signal triggering; and further comprising: transmitting the two or more second control messages, wherein one of the two or more second control messages is recognizable by the UE before the reconfiguration and another message of the two or more second control messages is recognizable by the UE after the reconfiguration, wherein control information associated with the first uplink transmission mode during a time interval is transmitted in a UE specific space, and control information associated with the second uplink transmission mode is transmitted in a common search space. transmitting a first message to reconfigure an uplink transmission mode of a user equipment, UE, from a first uplink transmission mode to a second uplink transmission mode; and implementing a reconfiguration scheme to assure at least one of two or more second control messages are recognizable by the UE during a transition period after transmission of the first message, wherein the transition period continues until the UE confirms successful transition to the second uplink transmission mode or the transition period continues for a duration defined by the eNB; and wherein the first uplink transmission mode is a single antenna port mode compatible with a LTE Rel-8 UE, and wherein the first uplink transmission mode does not support aperiodic sounding reference signal and the second uplink transmission mode supports dynamic aperiodic sounding reference signal triggering; and further comprising: transmitting the two or more second control messages, wherein one of the two or more second control messages is recognizable by the UE before the reconfiguration and another message of the two or more second control messages is recognizable by the UE after the reconfiguration, wherein control information associated with the first uplink transmission mode during a time interval is transmitted in a UE specific space, and control information associated with the second uplink transmission mode is transmitted in a common search space.
A method for increasing glutamic acid production in a yeast, comprising the steps of: (a) liquid-culturing a yeast in a logarithmic growth phase at a pH in the range of 3.5 to 7.5 and a temperature in the range of 20°C to 40°C, (b) when the yeast of (a) is in the stationary phase, subjecting said yeast to liquid-culturing under the conditions that the pH of the liquid medium is shifted, the shifted pH being 7.5 or higher and lower than 11 and the temperature is in the range of 20°C to 40°C, and (c) completing the liquid-culturing and recovering the yeast, thereby obtaining a yeast having a free glutamic acid content from 2.3% by weight to 10.0% by weight per dried yeast biomass, wherein, the yeast is Saccharomyces cerevisiae, and in the step of liquid-culturing the yeast, a portion of the cultured yeast is recovered and the content of free glutamic acid in the yeast is intermittently measured. (a) liquid-culturing a yeast in a logarithmic growth phase at a pH in the range of 3.5 to 7.5 and a temperature in the range of 20°C to 40°C, (b) when the yeast of (a) is in the stationary phase, subjecting said yeast to liquid-culturing under the conditions that the pH of the liquid medium is shifted, the shifted pH being 7.5 or higher and lower than 11 and the temperature is in the range of 20°C to 40°C, and (c) completing the liquid-culturing and recovering the yeast, thereby obtaining a yeast having a free glutamic acid content from 2.3% by weight to 10.0% by weight per dried yeast biomass,