mhurhangee/patent-ind-claim-en huggingface dataset:
A saccharification reaction mixture, characterized in that the reaction mixture can saccharify at least one of cellulose and hemicellulose and comprises: - at least one of cellulose and hemicellulose, - a saccharification enzyme, - silica or a silica-containing substance, and - at least one compound (A) selected from the group consisting of a compound represented by the following formula or : wherein R 1 to R 5 each represent a hydrogen atom or a C1 to C4 alkyl group, and hydrogen atoms of the alkyl group may be partially substituted by an allyl group, a hydroxyl group, an ester group, an amino group, a carboxyl group, a cyano group, a nitro group, a sulfo group, a phosphono group, or a halogen atom, and a salt thereof. - at least one of cellulose and hemicellulose, - a saccharification enzyme, - silica or a silica-containing substance, and - at least one compound (A) selected from the group consisting of a compound represented by the following formula or : wherein R 1 to R 5 each represent a hydrogen atom or a C1 to C4 alkyl group, and hydrogen atoms of the alkyl group may be partially substituted by an allyl group, a hydroxyl group, an ester group, an amino group, a carboxyl group, a cyano group, a nitro group, a sulfo group, a phosphono group, or a halogen atom, and a salt thereof.
A hot melt adhesive composition comprising: at least 15 % by weight of a first styrene block copolymer having an unsaturated midblock, a melt flow rate of at least 15 g/10 minutes (190°C, 2.16 kgs) and a diblock content of no greater than 10 % by weight, the hot melt adhesive composition having a viscosity of no greater than 15,000 cps at 121°C. at least 15 % by weight of a first styrene block copolymer having an unsaturated midblock, a melt flow rate of at least 15 g/10 minutes (190°C, 2.16 kgs) and a diblock content of no greater than 10 % by weight, the hot melt adhesive composition having a viscosity of no greater than 15,000 cps at 121°C.
A light-emitting diode package comprising: a package body including a groove including inner side surfaces and a bottom surface ; a light-emitting diode chip mounted on the bottom surface of the package body ; an encapsulation layer sealing the light-emitting diode chip ; a light conversion plate disposed on both the package body and the encapsulation layer ; and an air gap disposed between the encapsulation layer and the light conversion plate , wherein the light conversion plate comprises: a first glass substrate , a light conversion layer disposed on the first glass substrate and including quantum dots that convert incident light into light having a specific wavelength range, and a second glass substrate disposed on the light conversion layer , characterized in that a protrusion pattern is formed on a surface of the first glass substrate , on a surface of the second glass substrate , or on a surface of both the first glass substrate and the second glass substrate , and that at least one spacer is disposed between the package body and the light conversion plate , wherein the at least one spacer forms the air gap between the encapsulation layer and the light conversion plate . a package body including a groove including inner side surfaces and a bottom surface ; a light-emitting diode chip mounted on the bottom surface of the package body ; an encapsulation layer sealing the light-emitting diode chip ; a light conversion plate disposed on both the package body and the encapsulation layer ; and an air gap disposed between the encapsulation layer and the light conversion plate , wherein the light conversion plate comprises: a first glass substrate , a light conversion layer disposed on the first glass substrate and including quantum dots that convert incident light into light having a specific wavelength range, and a second glass substrate disposed on the light conversion layer , characterized in that a protrusion pattern is formed on a surface of the first glass substrate , on a surface of the second glass substrate , or on a surface of both the first glass substrate and the second glass substrate , and that at least one spacer is disposed between the package body and the light conversion plate , wherein the at least one spacer forms the air gap between the encapsulation layer and the light conversion plate . a first glass substrate , a light conversion layer disposed on the first glass substrate and including quantum dots that convert incident light into light having a specific wavelength range, and a second glass substrate disposed on the light conversion layer , characterized in that a protrusion pattern is formed on a surface of the first glass substrate , on a surface of the second glass substrate , or on a surface of both the first glass substrate and the second glass substrate , and that at least one spacer is disposed between the package body and the light conversion plate , wherein the at least one spacer forms the air gap between the encapsulation layer and the light conversion plate .
Fuel cell system comprising: a fuel cell stack ; an anode supply with an anode supply path for supplying an anode operating gas to the fuel cell stack and an anode exhaust gas path for removing an anode exhaust gas from the latter; a cathode supply with a cathode supply path for supplying a cathode operating gas to the fuel cell stack and a cathode exhaust gas path for removing a cathode exhaust gas from the latter; characterised in that in the anode supply path and in the anode exhaust gas path respectively a shut-off element is arranged, and between the shut-off element and the fuel cell stack respectively a gas connection is arranged for connecting to an external test gas supply, and/or in the cathode supply path and in the cathode exhaust gas path respectively a shut-off element is arranged, and between the shut-off element and the fuel cell stack respectively a gas connection is arranged for connecting to an external test gas supply. a fuel cell stack ; an anode supply with an anode supply path for supplying an anode operating gas to the fuel cell stack and an anode exhaust gas path for removing an anode exhaust gas from the latter; a cathode supply with a cathode supply path for supplying a cathode operating gas to the fuel cell stack and a cathode exhaust gas path for removing a cathode exhaust gas from the latter; characterised in that in the anode supply path and in the anode exhaust gas path respectively a shut-off element is arranged, and between the shut-off element and the fuel cell stack respectively a gas connection is arranged for connecting to an external test gas supply, and/or in the cathode supply path and in the cathode exhaust gas path respectively a shut-off element is arranged, and between the shut-off element and the fuel cell stack respectively a gas connection is arranged for connecting to an external test gas supply.
Installation procedure of a machine tool, inside a wind turbine nacelle, characterized in that it comprises the following stages: [a]. Hoisting the machine tool components inside the nacelle; [b]. Installing a mount on a nacelle frame element near the slewing ring of the nacelle; [c]. Installing the machine tool through a fastening element of the mount , the fastening element comprising a prismatic frame of triangular base connected through a free rim to a vertical slide and a horizontal slide bearing the machine tool; [d]. Aligning the movement of the horizontal slide with the upper plane of the slewing ring by means of adjusting the slides position on the free rim on a rotation axis perpendicular to the free rim ; [e]. Correcting the position of the vertical slide so its movement will be perpendicular to the plane of the slewing ring, by means of the rotation with respect to a horizontal axis parallel to the free rim of the frame ; [f]. Arranging the head of the machine tool in the vertical position by means of a rotation axis system arranged between the slides and the machine tool. [a]. Hoisting the machine tool components inside the nacelle; [b]. Installing a mount on a nacelle frame element near the slewing ring of the nacelle; [c]. Installing the machine tool through a fastening element of the mount , the fastening element comprising a prismatic frame of triangular base connected through a free rim to a vertical slide and a horizontal slide bearing the machine tool; [d]. Aligning the movement of the horizontal slide with the upper plane of the slewing ring by means of adjusting the slides position on the free rim on a rotation axis perpendicular to the free rim ; [e]. Correcting the position of the vertical slide so its movement will be perpendicular to the plane of the slewing ring, by means of the rotation with respect to a horizontal axis parallel to the free rim of the frame ; [f]. Arranging the head of the machine tool in the vertical position by means of a rotation axis system arranged between the slides and the machine tool.
Method for machining a wood material panel by means of a machine tool , comprising the following steps: introducing a cut-out into the wood material panel at a distance interval from the side edges of the wood material panel ; introducing a depth cutting tool into the cut-out ; introducing a deep indentation into a side wall of the cut-out by means of the depth cutting tool ; and dividing the wood material panel into furniture panels ; characterized in that the step of dividing the wood material panel into furniture panels comprises a first part step and a second part step, wherein the first part step comprises the introducing of at least one first separation cut (TS1) into the wood material panel , which produces a narrow connection surface of a furniture panel , said surface to be connected by a connection means , wherein the second part step comprises the introducing of at least one second separation cut (TS2) into the wood material panel , which produces a narrow surface of the furniture panel , said surface being free of any connection, and wherein the method further comprises an introduction step of the introducing of the connecting means into the deep indentation , wherein the introduction step is carried out between the first part step and the second part step. introducing a cut-out into the wood material panel at a distance interval from the side edges of the wood material panel ; introducing a depth cutting tool into the cut-out ; introducing a deep indentation into a side wall of the cut-out by means of the depth cutting tool ; and dividing the wood material panel into furniture panels ; characterized in that the step of dividing the wood material panel into furniture panels comprises a first part step and a second part step, wherein the first part step comprises the introducing of at least one first separation cut (TS1) into the wood material panel , which produces a narrow connection surface of a furniture panel , said surface to be connected by a connection means , wherein the second part step comprises the introducing of at least one second separation cut (TS2) into the wood material panel , which produces a narrow surface of the furniture panel , said surface being free of any connection, and wherein the method further comprises an introduction step of the introducing of the connecting means into the deep indentation , wherein the introduction step is carried out between the first part step and the second part step.
A pulling tool for pulling a slick line or a fibre optic cable within a wellbore or a tubing comprising a propulsion module having a main section and a propulsion arm hinged to the main section , wherein: the propulsion arm includes a propulsion wheel with a gear system, the gear system of the propulsion wheel comprising an eccentric, internally toothed gear system with a fixed inner gear and a moving outer gear, the moving outer gear exhibiting the internal toothing and constituting the propulsion wheel of the pulling tool, and an electric motor for driving the propulsion wheel via the gear system.
A segmented turbine shroud for radially encasing a rotatable turbine in a gas turbine engine , said shroud including a plurality of cartridges, one or more cartridges comprising: a carrier segment ; and a ceramic matrix composite seal segment carried by said carrier segment, said carrier segment and said CMC seal segment being positioned so that a surface of said carrier segment and a surface of said CMC seal segment form a mating region proximate an entire perimeter of said CMC seal segment to thereby form a cavity bounded by surfaces of said carrier segment and said CMC seal segment . a carrier segment ; and a ceramic matrix composite seal segment carried by said carrier segment, said carrier segment and said CMC seal segment being positioned so that a surface of said carrier segment and a surface of said CMC seal segment form a mating region proximate an entire perimeter of said CMC seal segment to thereby form a cavity bounded by surfaces of said carrier segment and said CMC seal segment .
An arm mechanism consisting of an attachment that performs partial rotation movement that is integrated to the construction machines used in the preparation of construction and urban infrastructures, with which digging, drilling, crushing etc. works are performed, a drive mechanism that drives said attachment with the drive piston , on which there are 2 hydraulic ports as the drive mechanism inlet hydraulic port and drive mechanism outlet hydraulic port , transmission mechanism that is located between said drive element and said attachment , transmits the movement and force received from said drive mechanism to said attachment , characterized by comprising ; • a positioning mechanism having positioning piston that moves in the + x or -x direction according to the movement of said drive piston that is located between said attachment and said transmission mechanism , on which there are 2 hydraulic ports as positioning mechanism inlet hydraulic port and positioning mechanism outlet hydraulic port , and changes the distance between said attachment and said transmission mechanism increasing the rotation angle of the said attachment during opening or closing with this movement, • a connection element which is connected to the drive mechanism inlet hydraulic port and drive mechanism outlet hydraulic port on the drive mechanism , provides the hydraulic oil in the drive mechanism to be used together with said positioning mechanism , • a transmission element that transmits the hydraulic fluid between said drive mechanism and said positioning mechanism . • a positioning mechanism having positioning piston that moves in the + x or -x direction according to the movement of said drive piston that is located between said attachment and said transmission mechanism , on which there are 2 hydraulic ports as positioning mechanism inlet hydraulic port and positioning mechanism outlet hydraulic port , and changes the distance between said attachment and said transmission mechanism increasing the rotation angle of the said attachment during opening or closing with this movement, • a connection element which is connected to the drive mechanism inlet hydraulic port and drive mechanism outlet hydraulic port on the drive mechanism , provides the hydraulic oil in the drive mechanism to be used together with said positioning mechanism , • a transmission element that transmits the hydraulic fluid between said drive mechanism and said positioning mechanism .
A spray canister device , comprising: a sleeved cover element ; and a canister element comprises interior content and a bottom portion ; characterised in that the sleeved cover element comprises: a top flat surface portion ; a sleeve portion ; a top cap portion , wherein the top cap portion includes a ring portion , a top body portion , and a cut-out portion , wherein the cut-out portion includes an opening ; a trigger bar ; wherein the interior content of the canister element is sprayed out by triggering the trigger bar of the sleeved cover element against the canister element and moving the bottom portion of the canister element to be closer to the opening of the sleeved cover element ; wherein the ring portion conforms to the shape of the sleeve portion . a sleeved cover element ; and a canister element comprises interior content and a bottom portion ; a top flat surface portion ; a sleeve portion ; a top cap portion , wherein the top cap portion includes a ring portion , a top body portion , and a cut-out portion , wherein the cut-out portion includes an opening ; a trigger bar ; wherein the interior content of the canister element is sprayed out by triggering the trigger bar of the sleeved cover element against the canister element and moving the bottom portion of the canister element to be closer to the opening of the sleeved cover element ;
A battery module comprising a block-like battery cell unit in which a plurality of battery cells and a plurality of separators are stacked, and a frame which constrains the battery cell unit in a stacking direction of the battery cells and the separators, the separators comprising first separators including two band portions , which are wide as viewed in the stacking direction and opposed to each other, and two end separators provided at respective ends of the battery cell unit , as viewed in the stacking direction, the end separators comprising an end plate and two side portions integrally extending in the same direction from the opposite two sides of the end plate and angular portions opposed to the frame , and the angular portions of the end separators being away from angular portions of the frame , with gaps interposed, the battery module being characterized in that the frame is formed of a single member and it is adapted to be fitted onto the battery cell unit by contact with part of the band portions of the first separators and part of the end plates and side portions of the two second separators .
Device for lighting and/or light signaling for a vehicle , in particular for a motor vehicle , said lighting device comprising a plurality of light guides and a system display integrated inside a housing closed by a glass , said display system comprising a display module , configured to allow diffusion of light orthotropically, characterized in that said display module is configured to move between an deployed position (PD) in the housing and a retracted position (PR) in the housing , and in that said device comprises a motorization module , configured to rotate, around an axis of rotation (A), the display module between said deployed position (PD) and said position retracted (PR), the display system having an active state and an inactive state, the motorization module is configured to place the display module in the deployed position (PD) when the display system ) is in said active state, and the motorization module is configured to place the display module in the retracted position (PR) when the display system is in said inactive state. the display system having an active state and an inactive state, the motorization module is configured to place the display module in the deployed position (PD) when the display system ) is in said active state, and the motorization module is configured to place the display module in the retracted position (PR) when the display system is in said inactive state.
An ink jet recording apparatus comprising: an image forming unit that forms a first image including a first liquid and a coloring material on an ink receiving medium; and a liquid absorbing member that includes a porous body which is configured to be brought into contact with the first image so as to absorb at least a portion of the first liquid from the first image, characterized in that an average pore diameter of a first surface of the porous body which is configured to be brought into contact with the first image is equal to or smaller than 0.6 μm, wherein an arithmetic average roughness Ra defined by JIS B 0601:2001 of the first surface of the porous body is equal to or smaller than 1.9 μm, wherein an average pore diameter of a second surface, which is a back surface of the first surface, of the porous body is larger than the average pore diameter of the first surface, and wherein a Gurley value defined by JIS P 8117 of the porous body is equal to or shorter than 10 seconds. an image forming unit that forms a first image including a first liquid and a coloring material on an ink receiving medium; and a liquid absorbing member that includes a porous body which is configured to be brought into contact with the first image so as to absorb at least a portion of the first liquid from the first image, characterized in that an average pore diameter of a first surface of the porous body which is configured to be brought into contact with the first image is equal to or smaller than 0.6 μm, wherein an arithmetic average roughness Ra defined by JIS B 0601:2001 of the first surface of the porous body is equal to or smaller than 1.9 μm, wherein an average pore diameter of a second surface, which is a back surface of the first surface, of the porous body is larger than the average pore diameter of the first surface, and wherein a Gurley value defined by JIS P 8117 of the porous body is equal to or shorter than 10 seconds.
A robotic gripping device comprising: a finger having a worm gear coupled to a base end of the finger , wherein the shape of the worm gear is a partial circle; an actuator having a motor and a shaft , wherein the shaft is configured to rotate a worm coupled to the worm gear , and wherein the actuator is mounted on a carriage such that the actuator is configured to slide along an axis; and a spring having a first end and a second end, wherein the first end is coupled to the motor of the actuator and the second end is fixed, such that the actuator is held in a first position along the axis when the spring is at equilibrium; wherein the actuator is configured to: rotate the shaft relative to the motor by a first amount, thereby rotating the worm and the worm gear to move the finger toward an object; when the finger is in contact with the object and the finger is prevented from further movement, further rotate the shaft relative to the motor to slide the actuator along the axis to a second position at which the spring is no longer at equilibrium, and to disengage the worm from the worm gear when a torque greater than a threshold torque is applied to the finger . a finger having a worm gear coupled to a base end of the finger , wherein the shape of the worm gear is a partial circle; an actuator having a motor and a shaft , wherein the shaft is configured to rotate a worm coupled to the worm gear , and wherein the actuator is mounted on a carriage such that the actuator is configured to slide along an axis; and a spring having a first end and a second end, wherein the first end is coupled to the motor of the actuator and the second end is fixed, such that the actuator is held in a first position along the axis when the spring is at equilibrium; wherein the actuator is configured to: rotate the shaft relative to the motor by a first amount, thereby rotating the worm and the worm gear to move the finger toward an object; when the finger is in contact with the object and the finger is prevented from further movement, further rotate the shaft relative to the motor to slide the actuator along the axis to a second position at which the spring is no longer at equilibrium, and to disengage the worm from the worm gear when a torque greater than a threshold torque is applied to the finger . rotate the shaft relative to the motor by a first amount, thereby rotating the worm and the worm gear to move the finger toward an object; when the finger is in contact with the object and the finger is prevented from further movement, further rotate the shaft relative to the motor to slide the actuator along the axis to a second position at which the spring is no longer at equilibrium, and to disengage the worm from the worm gear when a torque greater than a threshold torque is applied to the finger .