mhurhangee/ep-ind-claims huggingface dataset:
An elastic seesaw-type tilting mechanism (1, 1a), including: a base support, configured to be connected with a chair base through a chair column; a seat support, being pivotably mounted on the base support and configured to be connected with a seat; a backrest support, being pivotably mounted on the base support and configured to be connected with a backrest; a first elastic mechanism, being connected with the seat support and the backrest support to form an elastic seesaw mechanism; and a second elastic mechanism, being connected with the base support and the seat support, the second elastic mechanism and the first elastic mechanism being respectively biased against the seat support in opposite directions; characterized in that the base support, the seat support and the backrest support are pivotably mounted on a shaft, the first elastic mechanism being pivotably disposed around the shaft, and the shaft serves as a fulcrum and a pivot axis of the first elastic mechanism and the elastic seesaw mechanism. a base support, configured to be connected with a chair base through a chair column; a seat support, being pivotably mounted on the base support and configured to be connected with a seat; a backrest support, being pivotably mounted on the base support and configured to be connected with a backrest; a first elastic mechanism, being connected with the seat support and the backrest support to form an elastic seesaw mechanism; and a second elastic mechanism, being connected with the base support and the seat support, the second elastic mechanism and the first elastic mechanism being respectively biased against the seat support in opposite directions; characterized in that the base support, the seat support and the backrest support are pivotably mounted on a shaft, the first elastic mechanism being pivotably disposed around the shaft, and the shaft serves as a fulcrum and a pivot axis of the first elastic mechanism and the elastic seesaw mechanism.
A pneumatic solenoid poppet valve assembly comprising: a housing having a first end and a second end; a stator secured in and to said first end of said housing and including a spring pocket; said second end of said housing retained in a valve seat; an armature located fully inside said housing and between said stator and said second end and slidable in said housing, said armature including a spring pocket; an armature return spring located in said spring pocket of said stator and in said spring pocket of said armature, said return spring biasing said armature away from said stator and creating an air gap between said stator and said armature; wherein a dampening element is located in said spring pocket in said stator, said dampening element surrounding said return spring in said spring pocket in said stator and extending out of said spring pocket in said stator into said air gap, wherein when a solenoid is energized said armature is moved across said air gap and contacts said dampening element prior to contacting said stator and said dampening element dampens and slows the movement of said armature across said air gap characterized in that said air gap defines a total travel distance that the armature may move when said solenoid is energized and said dampening element defines a damped travel distance which is a sub-portion of said total travel distance. a housing having a first end and a second end; a stator secured in and to said first end of said housing and including a spring pocket; said second end of said housing retained in a valve seat; an armature located fully inside said housing and between said stator and said second end and slidable in said housing, said armature including a spring pocket; an armature return spring located in said spring pocket of said stator and in said spring pocket of said armature, said return spring biasing said armature away from said stator and creating an air gap between said stator and said armature; wherein a dampening element is located in said spring pocket in said stator, said dampening element surrounding said return spring in said spring pocket in said stator and extending out of said spring pocket in said stator into said air gap, wherein when a solenoid is energized said armature is moved across said air gap and contacts said dampening element prior to contacting said stator and said dampening element dampens and slows the movement of said armature across said air gap characterized in that said air gap defines a total travel distance that the armature may move when said solenoid is energized and said dampening element defines a damped travel distance which is a sub-portion of said total travel distance.
A refrigerator comprising: a cabinet defining a first storage area to store food; a door connected to the cabinet by first hinge members, so as to be rotatable about a first rotary shaft located at the front portion of the cabinet thereby opening or closing the first storage area; a gasket provided on the door; a container defining a second storage area received in the first storage area, being rotatable by a second hinge member installed on the cabinet, wherein the second hinge member includes: a first link and a second link rotatably installed on the container; a latch selectively combining the container with the door when both the door and the container are opened; characterized in that the refrigerator further comprises a third link and a fourth link rotatably installed on the cabinet; a first mount part installed on the container, rotatably combining the first link and the second link; and a second mount part installed on the cabinet, rotatably combining the third link and the fourth link, wherein each of the first link and the second link is rotatably connected to at least one of the third link and the fourth link, and wherein the second mount part is installed in a depression part formed on the cabinet. a cabinet defining a first storage area to store food; a door connected to the cabinet by first hinge members, so as to be rotatable about a first rotary shaft located at the front portion of the cabinet thereby opening or closing the first storage area; a gasket provided on the door; a container defining a second storage area received in the first storage area, being rotatable by a second hinge member installed on the cabinet, wherein the second hinge member includes: a first link and a second link rotatably installed on the container; a latch selectively combining the container with the door when both the door and the container are opened; characterized in that the refrigerator further comprises a third link and a fourth link rotatably installed on the cabinet; a first mount part installed on the container, rotatably combining the first link and the second link; and a second mount part installed on the cabinet, rotatably combining the third link and the fourth link, wherein each of the first link and the second link is rotatably connected to at least one of the third link and the fourth link, and wherein the second mount part is installed in a depression part formed on the cabinet.
A method for determining the presence, absence or one or more characteristics of two or more analytes in two or more samples, comprising: (a) coupling a first analyte in a first sample to a membrane using one or more anchors; (b) allowing the first analyte to interact with a detector present in the membrane and thereby determining the presence, absence or one or more characteristics of the first analyte; (c) uncoupling the first analyte from the membrane; (d) coupling a second analyte in a second sample to the membrane using one or more anchors; and (e) allowing the second analyte to interact with a detector in the membrane and thereby determining the presence, absence or one or more characteristics of the second analyte. (a) coupling a first analyte in a first sample to a membrane using one or more anchors; (b) allowing the first analyte to interact with a detector present in the membrane and thereby determining the presence, absence or one or more characteristics of the first analyte; (c) uncoupling the first analyte from the membrane; (d) coupling a second analyte in a second sample to the membrane using one or more anchors; and (e) allowing the second analyte to interact with a detector in the membrane and thereby determining the presence, absence or one or more characteristics of the second analyte.
A system for supplying power to an implantable blood pump, the system comprising: a base module (402, 502) operatively coupled with the blood pump to supply electrical power to drive the implantable blood pump; a first modular energy storage device configured to be operatively coupled to the base module (402, 502) to supply electrical power to the base module (402, 502); and a second modular energy storage device operatively coupled to the first modular energy storage device to supply electrical power to the first modular energy storage device, wherein the second modular energy storage device is mechanically coupled in series to the first modular energy storage device and electrically coupled in parallel to the first modular energy storage device, wherein the first and second modular energy storage devices (604, 606) are configured to provide redundant sources of power to drive the implantable blood pump. a base module (402, 502) operatively coupled with the blood pump to supply electrical power to drive the implantable blood pump; a first modular energy storage device configured to be operatively coupled to the base module (402, 502) to supply electrical power to the base module (402, 502); and a second modular energy storage device operatively coupled to the first modular energy storage device to supply electrical power to the first modular energy storage device, wherein the second modular energy storage device is mechanically coupled in series to the first modular energy storage device and electrically coupled in parallel to the first modular energy storage device, wherein the first and second modular energy storage devices (604, 606) are configured to provide redundant sources of power to drive the implantable blood pump.
A straddled electric vehicle comprising: a battery; a motor unit including an electric motor and a case containing the electric motor; a motor drive unit including a drive circuit and a case containing the drive circuit, the drive circuit configured to supply power to the electric motor by utilizing power of the battery; and a first cable harness for electrically connecting the electric motor and the drive circuit and configured for sending the power of the battery from the drive circuit to the electric motor, wherein the motor unit is disposed behind the motor drive unit with regard to vehicle front-rear direction (Y1-Y2), and the first cable harness has, in a middle thereof, a portion located forward than a front surface of the motor drive unit with regard to the vehicle front-rear direction (Y1-Y2), characterized in that the motor drive unit is disposed behind the battery with regard to the vehicle front-rear direction (Y1-Y2), and the portion of the first cable harness overlaps the battery in a side view of a vehicle body. a battery; a motor unit including an electric motor and a case containing the electric motor; a motor drive unit including a drive circuit and a case containing the drive circuit, the drive circuit configured to supply power to the electric motor by utilizing power of the battery; and a first cable harness for electrically connecting the electric motor and the drive circuit and configured for sending the power of the battery from the drive circuit to the electric motor, wherein the motor unit is disposed behind the motor drive unit with regard to vehicle front-rear direction (Y1-Y2), and the first cable harness has, in a middle thereof, a portion located forward than a front surface of the motor drive unit with regard to the vehicle front-rear direction (Y1-Y2), characterized in that the motor drive unit is disposed behind the battery with regard to the vehicle front-rear direction (Y1-Y2), and the portion of the first cable harness overlaps the battery in a side view of a vehicle body.
A cartridge system for a cable reel, the cartridge system comprising: a case configured to hold the cable reel; a lid rotatably connected to the case via a hinge, the lid configured to cover an opening of the case in a closed position; and characterised by a pair of wheels attached to the case; and a pair of latches, the latches having a first end rotatably connected to the lid and a second end having a slot latchable onto a pin on the inside of the case such that when the lid is in an open position the second end of the latches slides downwards for the slot to be latched onto the pin and to hold the lid in the open position allowing an operator to tilt and roll the case on the wheels. a case configured to hold the cable reel; a lid rotatably connected to the case via a hinge, the lid configured to cover an opening of the case in a closed position; and characterised by a pair of wheels attached to the case; and a pair of latches, the latches having a first end rotatably connected to the lid and a second end having a slot latchable onto a pin on the inside of the case such that when the lid is in an open position the second end of the latches slides downwards for the slot to be latched onto the pin and to hold the lid in the open position allowing an operator to tilt and roll the case on the wheels.
A transmission electron microscope comprising: means for producing an electron beam; a specimen chamber in which a specimen may be positioned; gas supply means (37, 38, 39) for supplying gas at a controlled flow rate at least to around a surface of the specimen; evacuation means for evacuating the inside of the specimen chamber; an objective lens having an upper polepiece and a lower polepiece, the upper polepiece being disposed at a higher position in the specimen chamber, the lower polepiece being disposed at a lower position in the specimen chamber; detection means (21,22,14,15) for detecting electrons transmitted through the specimen; display means for displaying a transmission image of the specimen based on an output signal from the detection means; and characterised in that the transmission electron microscope further comprises beam-blocking plates disposed on upper and lower surfaces of the upper and lower polepieces, respectively, of the objective lens, all the beam-blocking plates being capable of blocking off the electron beam or passing the electron beam by being moved in a direction crossing the optical axis of the beam, wherein each of said plates is provided with plural holes (A-E) which are different from each other in diameter and can be brought onto the optical axis. means for producing an electron beam; a specimen chamber in which a specimen may be positioned; gas supply means (37, 38, 39) for supplying gas at a controlled flow rate at least to around a surface of the specimen; evacuation means for evacuating the inside of the specimen chamber; an objective lens having an upper polepiece and a lower polepiece, the upper polepiece being disposed at a higher position in the specimen chamber, the lower polepiece being disposed at a lower position in the specimen chamber; detection means (21,22,14,15) for detecting electrons transmitted through the specimen; display means for displaying a transmission image of the specimen based on an output signal from the detection means; and characterised in that the transmission electron microscope further comprises beam-blocking plates disposed on upper and lower surfaces of the upper and lower polepieces, respectively, of the objective lens, all the beam-blocking plates being capable of blocking off the electron beam or passing the electron beam by being moved in a direction crossing the optical axis of the beam, wherein each of said plates is provided with plural holes (A-E) which are different from each other in diameter and can be brought onto the optical axis.
A computer-implemented method of designing a structural joint of two composite material parts (11, 15) with an adhesive material layer, comprising the following steps: a) providing a finite element model for analysing said structural joint including both the geometric characteristics of the joint and the physical characteristics of said composite parts (11, 15) and said adhesive layer, b) providing a calculation model for calculating the deformations of the adhesive material layer when it is subjected to tensile/peel and shear stresses, c) simulating the behaviour of said bonded joint by applying said calculation model to obtain the failure indices of each failure mode, characterized in that the calculation model includes a decoupled analysis of the plastic behaviour of the adhesive of a linear type under tension/ peeling and of non-linear type under shearing and wherein the effect that the tensile stress have in the plastification process based on the generation and coalescence of microcavities is simulated by plastification criteria taking into account hydrostatic stress. a) providing a finite element model for analysing said structural joint including both the geometric characteristics of the joint and the physical characteristics of said composite parts (11, 15) and said adhesive layer, b) providing a calculation model for calculating the deformations of the adhesive material layer when it is subjected to tensile/peel and shear stresses, c) simulating the behaviour of said bonded joint by applying said calculation model to obtain the failure indices of each failure mode,
A handle for manipulating a catheter tip of a medical insertion system, wherein the handle has at least a first and a second operating means (71, 81), with which first and second housing portions (11, 21) of the catheter tip can be manipulated so that a self-expandable stent housed in the catheter tip can be released in steps in a previously defined or definable sequence of events from the catheter tip, wherein the handle further has at least one stop (75, 76, 77, 85, 86) associated with the operating means (71, 81), which is designed to limit a longitudinal displacement stroke of the first and/or second housing portion (11, 21) of the catheter tip that can be effected by actuation of the at least one operating means (71, 81), and wherein the first operating means is supported rotatably in the handle and connected to the first housing portion of the catheter tip so as to execute a definable longitudinal displacement stroke on the first housing portion of the catheter tip upon rotation of the first operating means, characterized in that the handle further comprises a third operating means configured to enable manipulation of a flexural link region of a catheter system of the medical insertion system to have a directed effect on the curvature of the flexural link.
A generator assembly including generator means, a first converter member and a controller, which is arranged to control the operation of the first converter member, the generator means being arranged to convert mechanical power to electric power and comprising an AC generator, a voltage regulator and an AC coupling, the voltage regulator being arranged to regulate magnetization of the AC generator on the basis of the voltage of the AC coupling of the generator means, the AC coupling being arranged to supply electric power from the AC generator to the first converter member, and the first converter member being arranged to rectify the voltage applied through the AC coupling into DC voltage, wherein the controller is arranged to adjust the power of the AC generator by changing a component (I q) associated with the torque of the current passing though the AC coupling so as to obtain power of desired magnitude from the AC generator, and in that the controller is arranged to provide a limited amount of magnetization-related current component (I d) in the current passing through the AC coupling, the limited amount being limited such that the voltage regulator is able to remain within its normal operating range in all use situations, and the voltage regulator and the controller operate independently without mutual data exchange.
An engine component assembly for impingement cooling, comprising: an engine component having a cooled surface; said engine component having a coolant flow path on one side of said cooled surface; an insert disposed adjacent to said engine component between said flow path and said engine component, said insert having a plurality of openings forming an array through said insert, said cooling flow passing through said plurality of openings to cool said cooled surface, said insert having a surface facing said cooled surface of said engine component, and said openings extending through said insert at a non-orthogonal angle to said insert surface; a plurality of discrete cooling features extending from said insert surface into a gap between said insert surface and said cooled surface, and toward said cooled surface of said engine component; and, said plurality of cooling features defining an array, characterised in that: said cooling features of said array are aligned with at least one opening of said openings of said insert, wherein an axis of said opening intersects at least one of said cooling features, and in that said cooling features do not touch said cooled surface of the engine component. an engine component having a cooled surface; said engine component having a coolant flow path on one side of said cooled surface; an insert disposed adjacent to said engine component between said flow path and said engine component, said insert having a plurality of openings forming an array through said insert, said cooling flow passing through said plurality of openings to cool said cooled surface, said insert having a surface facing said cooled surface of said engine component, and said openings extending through said insert at a non-orthogonal angle to said insert surface; a plurality of discrete cooling features extending from said insert surface into a gap between said insert surface and said cooled surface, and toward said cooled surface of said engine component; and, said plurality of cooling features defining an array, characterised in that: said cooling features of said array are aligned with at least one opening of said openings of said insert, wherein an axis of said opening intersects at least one of said cooling features, and in that said cooling features do not touch said cooled surface of the engine component.
A method for making an article comprising neat aligned carbon nanotubes, said method comprising: 1) preparing a solution of carbon nanotubes in a super acid solvent; wherein a concentration of carbon nanotubes in the super acid solvent is chosen such that the solution is in a liquid crystalline state; 2) extruding the solution to provide an extrudate, wherein tension is applied during the extruding step; and 3) removing the super acid solvent from the extrudate. 1) preparing a solution of carbon nanotubes in a super acid solvent; wherein a concentration of carbon nanotubes in the super acid solvent is chosen such that the solution is in a liquid crystalline state; wherein a concentration of carbon nanotubes in the super acid solvent is chosen such that the solution is in a liquid crystalline state; 2) extruding the solution to provide an extrudate, wherein tension is applied during the extruding step; and 3) removing the super acid solvent from the extrudate.