mhurhangee/ep-ind-claims huggingface dataset:
A combustor for a gas turbine engine, comprising: a support shell; a forward combustor liner segment; an aft combustor liner segment; and a combustor liner segment seal member, comprising: a center section having a base surface, a gas path surface, a forward side surface, and an aft side surface; a forward flange extending outwardly from the forward side surface, the forward flange having a width, a height, a shell side surface, and a liner side surface; and an aft flange extending outwardly from the aft side surface, the aft flange having a width, a height, a shell side surface, and a liner side surface, wherein the forward combustor liner segment is disposed on the liner side surface of the forward flange, and the aft combustor liner segment is disposed on the liner side surface of the aft flange; wherein the center section has a height that is greater than the height of the forward flange and the height of the aft flange, wherein the forward flange is disposed between the shell and a seal shoulder of the forward combustor liner segment, the aft flange is disposed between the support shell and a seal shoulder of the aft combustor liner segment, and the center section is disposed between respective edge surfaces of the forward combustor liner segment and the aft combustor liner segment. a support shell; a forward combustor liner segment; an aft combustor liner segment; and a combustor liner segment seal member, comprising: a center section having a base surface, a gas path surface, a forward side surface, and an aft side surface; a forward flange extending outwardly from the forward side surface, the forward flange having a width, a height, a shell side surface, and a liner side surface; and an aft flange extending outwardly from the aft side surface, the aft flange having a width, a height, a shell side surface, and a liner side surface, wherein the forward combustor liner segment is disposed on the liner side surface of the forward flange, and the aft combustor liner segment is disposed on the liner side surface of the aft flange; a center section having a base surface, a gas path surface, a forward side surface, and an aft side surface; a forward flange extending outwardly from the forward side surface, the forward flange having a width, a height, a shell side surface, and a liner side surface; and an aft flange extending outwardly from the aft side surface, the aft flange having a width, a height, a shell side surface, and a liner side surface, wherein the forward combustor liner segment is disposed on the liner side surface of the forward flange, and the aft combustor liner segment is disposed on the liner side surface of the aft flange; wherein the center section has a height that is greater than the height of the forward flange and the height of the aft flange, wherein the forward flange is disposed between the shell and a seal shoulder of the forward combustor liner segment, the aft flange is disposed between the support shell and a seal shoulder of the aft combustor liner segment, and the center section is disposed between respective edge surfaces of the forward combustor liner segment and the aft combustor liner segment.
An oil-fired boiler comprising: a combustion chamber wall body configured to enclose a combustion chamber in which combustion is performed by a burner; a plurality of fire tubes installed to face the burner with the combustion chamber interposed therebetween, wherein a combustion gas generated by the combustion of the burner passes through the plurality of fire tubes; a first fire tube support plate configured to fixedly support one end of each of the plurality of fire tubes, which is close to the burner; a boiler body configured to form a water tank accommodating heating water which is filled in a space between the combustion chamber wall body and the boiler body and a space between the fire tube and the boiler body; and a combustion gas path guide provided between the burner and the first fire tube support plate and configured to block the combustion gas generated by the combustion of the burner from flowing through a central portion of the combustion chamber and at the same time to allow the combustion gas to flow through a space formed between an edge portion of the combustion chamber and an inner side surface of the combustion chamber wall body; wherein the combustion gas path guide includes a guide plate separated from the first fire tube support plate; the oil-fired boiler further comprising a guide sidewall configured to extend from an edge of the guide plate toward the burner; characterized in that an end portion of the edge of the guide plate protrudes outward more than an outside surface of the guide sidewall. a combustion chamber wall body configured to enclose a combustion chamber in which combustion is performed by a burner; a plurality of fire tubes installed to face the burner with the combustion chamber interposed therebetween, wherein a combustion gas generated by the combustion of the burner passes through the plurality of fire tubes; a first fire tube support plate configured to fixedly support one end of each of the plurality of fire tubes, which is close to the burner; a boiler body configured to form a water tank accommodating heating water which is filled in a space between the combustion chamber wall body and the boiler body and a space between the fire tube and the boiler body; and a combustion gas path guide provided between the burner and the first fire tube support plate and configured to block the combustion gas generated by the combustion of the burner from flowing through a central portion of the combustion chamber and at the same time to allow the combustion gas to flow through a space formed between an edge portion of the combustion chamber and an inner side surface of the combustion chamber wall body; wherein the combustion gas path guide includes a guide plate separated from the first fire tube support plate; the oil-fired boiler further comprising a guide sidewall configured to extend from an edge of the guide plate toward the burner; characterized in that an end portion of the edge of the guide plate protrudes outward more than an outside surface of the guide sidewall.
A device for the state detection of an injector comprising: an injector for injecting fuel into an engine combustion chamber; a switch that is adapted to change its switch state in dependence on a state of the injector; and an evaluation unit for detecting the switch state of the switch, wherein a first switch contact of the switch is connected to an electrical input line of the injector; and a second switch contact of the switch is connected to ground, characterized in that the evaluation unit is adapted to carry out a first current measurement for a current (I HS, I CT) flowing into the injector and into the switch and a second current measurement for the current (I LS) only flowing through the injector, wherein the evaluation unit is further adapted to determine the switch state of the switch on the basis of a difference of the measured values between the first current measurement and the second current measurement. an injector for injecting fuel into an engine combustion chamber; a switch that is adapted to change its switch state in dependence on a state of the injector; and an evaluation unit for detecting the switch state of the switch, a first switch contact of the switch is connected to an electrical input line of the injector; and a second switch contact of the switch is connected to ground, characterized in that the evaluation unit is adapted to carry out a first current measurement for a current (I HS, I CT) flowing into the injector and into the switch and a second current measurement for the current (I LS) only flowing through the injector, wherein the evaluation unit is further adapted to determine the switch state of the switch on the basis of a difference of the measured values between the first current measurement and the second current measurement.
A process for the catalytic alkylation of an olefin with an isoparaffin, the process comprising: contacting an olefin-containing feed with an isoparaffin-containing feed under alkylation conditions in the presence of a solid acid catalyst comprising a crystalline microporous material of the MWW framework type, wherein the olefin-containing feed consists essentially of pentenes.
A method for the control of an arm prosthesis having at least one powered joint (108, 112) and at least one inertial measurement sensor, characterized in that the method comprising: determining (406, 408) a motion of the arm prosthesis relative to the inertial reference frame based at least on an output of the IMS; generating (410, 412) control signals for the at least one powered joint based on the motion and the orientation of the prosthetic arm. determining (406, 408) a motion of the arm prosthesis relative to the inertial reference frame based at least on an output of the IMS; generating (410, 412) control signals for the at least one powered joint based on the motion and the orientation of the prosthetic arm.
A column-less dual-platen clamping unit for α plastics injection moulding machine with α fixed clamping platen and α moving clamping platen wherein the mould clamping unit has α first drive unit to build up the clamping force, wherein the first drive unit is of α non-linear construction and the clamping force can be built up in the mould clamping unit substantially by the first drive unit, wherein at least one second drive unit is provided to move the moving mould clamping platen relative to the fixed mould clamping platen, wherein the relative movement can be effected along α travel path substantially by the at least one second drive unit, wherein the at least one second drive unit is arranged parallel to the first drive unit, i.e. independently of mechanical components of the first drive unit, so as to interact with the fixed and the moving mould clamping platen (2, 3) characterized in that the flux of force in the build-up of the clamping force does not take place via the machine frame.
Adjustable hinge for pivotably connecting a first element to a second element, the hinge being provided with two components (14, 24) that are mutually opposed in the longitudinal direction of the hinge and rotatable against one another, the two components (14, 24) being either a bolt and a bearing bush receiving the bolt or a double-ended bolt and two bearing bushes each receiving one bolt end of the double-ended bolt, the longitudinal direction of the hinge being defined by the bearing bush and bolt, and the hinge having adjustment elements, which are optionally provided with a locking mechanism, and of which • a first adjustment element is formed eccentrically and is used to provide the possibility for lateral displacement of the elements (1, 2) against one another perpendicular to the longitudinal direction of the hinge; and • a second adjustment element is used to provide the possibility for displacement of the elements (1, 2) against one another in the longitudinal direction of the hinge, • the adjustment elements and optionally the locking mechanism have an adjustment crown (60, 60', 60", 60"'), and • the adjustment crown (60, 60', 60", 60"') is designed similarly to a disk with a circular or polygonal periphery and has a plurality of radial engagement openings distributed over its periphery, characterized in that • forces acting in the longitudinal direction of the hinge are conveyed between a bolt and a bearing bush via a pressure disk (40, 40', 40'), which has a central through-opening and at least at one side (80; 90) a channel system (82, 84; 88, 92) for distribution of lubricant. • a first adjustment element is formed eccentrically and is used to provide the possibility for lateral displacement of the elements (1, 2) against one another perpendicular to the longitudinal direction of the hinge; and • a second adjustment element is used to provide the possibility for displacement of the elements (1, 2) against one another in the longitudinal direction of the hinge, • the adjustment elements and optionally the locking mechanism have an adjustment crown (60, 60', 60", 60"'), and • the adjustment crown (60, 60', 60", 60"') is designed similarly to a disk with a circular or polygonal periphery and has a plurality of radial engagement openings distributed over its periphery, • forces acting in the longitudinal direction of the hinge are conveyed between a bolt and a bearing bush via a pressure disk (40, 40', 40'), which has a central through-opening and at least at one side (80; 90) a channel system (82, 84; 88, 92) for distribution of lubricant.
Drive arrangement for a two-wheeled vehicle, in particular a vehicle with muscle drive with a wheel, rotatably mounted on the vehicle with a drive wheel, which is fastenable to the wheel, with a traction means, which is arranged in a looping manner around the drive wheel, with an electric motor, which is fastened to a motor support and which is drivingly connected to a drive wheel, which is arranged in engagement with the traction means, characterized by at least one support wheel, which is rotatably mounted with respect to the motor support and is arranged to roll on the drive wheel, wherein the motor support is connected in an articulated manner to a frame part of the vehicle. with a drive wheel, which is fastenable to the wheel, with a traction means, which is arranged in a looping manner around the drive wheel, with an electric motor, which is fastened to a motor support and which is drivingly connected to a drive wheel, which is arranged in engagement with the traction means, characterized by at least one support wheel, which is rotatably mounted with respect to the motor support and is arranged to roll on the drive wheel, wherein the motor support is connected in an articulated manner to a frame part of the vehicle.
A temperature controller for adjusting a temperature, the temperature controller to/from which a cable device is attachable and detachable, comprising: a circuit substrate for processing an input signal; and a substrate side contact portion, wherein the substrate side contact portion is formed on a surface on one side of the circuit substrate, wherein the substrate side contact portion is configured to be brought into contact with a connector of the cable device, wherein the temperature controller comprises a case accommodating the circuit substrate and being provided with a first insertion hole to insert the connector of the cable device, and a second insertion hole to insert a protection portion of the cable device, characterized in that the first and second insertion holes (17, 18) being provided adjacent to and separately from each other. a circuit substrate for processing an input signal; and a substrate side contact portion, wherein the substrate side contact portion is formed on a surface on one side of the circuit substrate, wherein the substrate side contact portion is configured to be brought into contact with a connector of the cable device, wherein the temperature controller comprises a case accommodating the circuit substrate and being provided with a first insertion hole to insert the connector of the cable device, and a second insertion hole to insert a protection portion of the cable device, characterized in that the first and second insertion holes (17, 18) being provided adjacent to and separately from each other.
An cytotoxic antibody molecule which binds PODXL and includes two monomers, each monomer including an Fv antibody fragment connected to a dimerizing portion, wherein the dimerizing portions interact to form the antibody molecule, wherein each Fv antibody fragment has a VH region and a VL region, and has CDR amino acid sequences (i) to (vi): (i) VL CDR1: SASSSVNYMY (SEQ ID NO: 2); (ii) VL CDR2: DTSNLAS (SEQ ID NO: 3); (iii) VL CDR3: QQWSSYPYT (SEQ ID NO: 4); (iv) VH CDR1: NYWMN (SEQ ID NO: 5); (v) VH CDR2: EIRLKSNNYATHYAESVKG (SEQ ID NO: 6); (vi) VH CDR3: ERA (SEQ ID NO: 7); and wherein the antibody molecule does not include a whole antibody Fc region or a part of an antibody Fc region and wherein the dimerizing portion comprises a dimerization domain, the dimerization domain being selected from a helix-turn-helix motif, a coiled-coil motif, a leucine zipper motif or an EF hand motif. (i) VL CDR1: SASSSVNYMY (SEQ ID NO: 2); (ii) VL CDR2: DTSNLAS (SEQ ID NO: 3); (iii) VL CDR3: QQWSSYPYT (SEQ ID NO: 4); (iv) VH CDR1: NYWMN (SEQ ID NO: 5); (v) VH CDR2: EIRLKSNNYATHYAESVKG (SEQ ID NO: 6); (vi) VH CDR3: ERA (SEQ ID NO: 7); and
An apparatus for selective unlocking actuation of storage containers, comprising: an index plate defining one or more spaces over a surface of the plate (34; 102, 104), wherein each of the one or more spaces has a corresponding protrusion (52A, 52B, 52C extending within; a first actuator configured to translate the index plate in a first direction; a second actuator configured to translate the index plate in a second direction different from the first direction; and one or more lever arms (28A, 28B, 28C) which correspondingly extend from a locking mechanism and the one or more spaces, wherein by translation of the index plate in the first direction selective engagement of a single lever arm by a corresponding single protrusion actuates by translation of the index plate in the second direction the single lever arm from a locked configuration to an unlocked configuration. an index plate defining one or more spaces over a surface of the plate (34; 102, 104), wherein each of the one or more spaces has a corresponding protrusion (52A, 52B, 52C extending within; a first actuator configured to translate the index plate in a first direction; a second actuator configured to translate the index plate in a second direction different from the first direction; and one or more lever arms (28A, 28B, 28C) which correspondingly extend from a locking mechanism and the one or more spaces, wherein by translation of the index plate in the first direction selective engagement of a single lever arm by a corresponding single protrusion actuates by translation of the index plate in the second direction the single lever arm from a locked configuration to an unlocked configuration.
A paddle wheel yacht, comprising: a hull, a power unit set in the hull, and the power unit consists of an engine-driven propeller; the propeller consists of two symmetrically arranged paddle wheels on the two sides of the hull, wherein the lower edges of the paddle wheels are lower than the hull bottom; a rudder is installed in the rear of the hull; said paddle wheels are arranged symmetrically on the two sides at the lengthways middle part of the hull; characterized in that said hull is triple-hulled consisting of two sub-hulls (6, 7) and one main hull, the sub-hulls are symmetrically arranged on the two sides and near to the front of the main hull the bottoms of the said sub-hulls (6, 7) are lower than the bottom of the main hull; the symmetrically arranged paddle wheels on the two sides of the main hull are upward and downward synchronously adjustable, and/or forward and backward synchronously adjustable. a hull, a power unit set in the hull, and the power unit consists of an engine-driven propeller; the propeller consists of two symmetrically arranged paddle wheels on the two sides of the hull, wherein the lower edges of the paddle wheels are lower than the hull bottom; a rudder is installed in the rear of the hull; said paddle wheels are arranged symmetrically on the two sides at the lengthways middle part of the hull; characterized in that said hull is triple-hulled consisting of two sub-hulls (6, 7) and one main hull, the sub-hulls are symmetrically arranged on the two sides and near to the front of the main hull the bottoms of the said sub-hulls (6, 7) are lower than the bottom of the main hull; the symmetrically arranged paddle wheels on the two sides of the main hull are upward and downward synchronously adjustable, and/or forward and backward synchronously adjustable.
A glass-wiping device, comprising a suction apparatus, a cleaning unit, a driver unit, a running unit and a control unit, the running unit and the cleaning unit being both arranged at the bottom of the glass-wiping device, the control unit being connected to the driver unit, the driver unit controlling the running unit to run under an action of the control unit, the glass-wiping device sucking onto a surface of a glass via the suction apparatus, and the suction apparatus comprising a suction cup, wherein the suction cup comprises a flexible layer, and the glass-wiping device is characterized in that, the suction cup further comprises a thin-film layer connected to the flexible layer, the flexible layer is connected to the bottom of the glass-wiping device, and the thin-film layer has a plane lower surface and is for use in contacting and sealing the surface of the glass.
A bipolar plate for a battery, the bipolar plate having a positive electrode disposed on a first surface side thereof and a negative electrode disposed on a second surface side thereof, wherein at least one of the first surface and the second surface is provided with a flow path through which an electrolyte flows; the flow path includes an introduction port for the electrolyte, a discharge port for the electrolyte, and a groove section which is located between the introduction port and the discharge port and guides the electrolyte to a predetermined route; the groove section includes a plurality of vertical groove sections which extend in a vertical direction and are arranged in parallel in a direction orthogonal to the vertical direction when the bipolar plate is placed at a predetermined position in the battery; an inter-groove distance between side edges of adjacent vertical groove sections is from more than 100% to 700% of a width of the vertical groove section; the flow path includes an introducing path and a discharging path which are not in communication with each other; the introducing path and the discharging path each include a comb-tooth-shaped path, the comb-tooth-shaped paths being arranged to face each other in an interlocking manner, and the comb-tooth-shaped paths are provided with the vertical groove sections; a length of the portion where the comb-tooth-shaped paths are interlocked with each other is 80% to 99% of a length of the vertical groove section; the groove section has a uniform depth over the entire flow path; and the depth of the groove is 10% to 45% of the thickness of the bipolar plate.