mhurhangee/ep-ind-claims huggingface dataset:
A combustor liner panel attachment assembly comprising: a first liner panel extending from a first end to a second end, and circumferentially to partially define a combustion zone; a second liner panel disposed circumferentially adjacent to the first liner panel; and a radial support having a shoulder in contact with a radially inner surface of each of the first liner panel and the second liner panel to radially retain the first liner panel and the second liner panel, the radial support allowing the first liner panel and the second liner panel to thermally grow axially; characterized by: a spring element located adjacent to a portion of the first liner panel and operatively coupled to a stationary structure, the spring element having a recessed segment; and a protrusion feature extending radially outwardly from the first liner panel, the protrusion feature disposed within the recessed segment of the spring element to axially retain the first liner panel. a first liner panel extending from a first end to a second end, and circumferentially to partially define a combustion zone; a second liner panel disposed circumferentially adjacent to the first liner panel; and a radial support having a shoulder in contact with a radially inner surface of each of the first liner panel and the second liner panel to radially retain the first liner panel and the second liner panel, the radial support allowing the first liner panel and the second liner panel to thermally grow axially; characterized by: a spring element located adjacent to a portion of the first liner panel and operatively coupled to a stationary structure, the spring element having a recessed segment; and a protrusion feature extending radially outwardly from the first liner panel, the protrusion feature disposed within the recessed segment of the spring element to axially retain the first liner panel. a spring element located adjacent to a portion of the first liner panel and operatively coupled to a stationary structure, the spring element having a recessed segment; and a protrusion feature extending radially outwardly from the first liner panel, the protrusion feature disposed within the recessed segment of the spring element to axially retain the first liner panel.
Method for manufacturing a sensor device with a buried deep trench structure, comprising: providing a semiconductor substrate having a sensing region, which extends vertically below a main surface region of the semiconductor substrate into the semiconductor substrate, wherein a masking layer is arranged on the main surface region of the semiconductor substrate, etching a deep trench structure into the semiconductor substrate through revealed areas of the masking layer for arranging the deep trench structure laterally relative to the sensing region and vertically from the main surface region into the semiconductor substrate, selectively depositing by epitaxy a doped semiconductor layer on a surface region of the deep trench structure for providing a coated deep trench structure, at least partially removing the masking layer for revealing the main surface region of the semiconductor substrate, depositing a semiconductor capping layer on the main surface region of the semiconductor substrate, wherein the semiconductor capping layer covers and closes the coated deep trench structure and forms together with the semiconductor substrate a thickened semiconductor substrate having the buried deep trench structure, and out-diffusing dopants of the doped semiconductor layer into the thickened semiconductor substrate wherein the out-diffused dopants provide a trench doping region that extends from the doped semiconductor layer into the thickened semiconductor substrate. providing a semiconductor substrate having a sensing region, which extends vertically below a main surface region of the semiconductor substrate into the semiconductor substrate, wherein a masking layer is arranged on the main surface region of the semiconductor substrate, etching a deep trench structure into the semiconductor substrate through revealed areas of the masking layer for arranging the deep trench structure laterally relative to the sensing region and vertically from the main surface region into the semiconductor substrate, selectively depositing by epitaxy a doped semiconductor layer on a surface region of the deep trench structure for providing a coated deep trench structure, at least partially removing the masking layer for revealing the main surface region of the semiconductor substrate, depositing a semiconductor capping layer on the main surface region of the semiconductor substrate, wherein the semiconductor capping layer covers and closes the coated deep trench structure and forms together with the semiconductor substrate a thickened semiconductor substrate having the buried deep trench structure, and out-diffusing dopants of the doped semiconductor layer into the thickened semiconductor substrate wherein the out-diffused dopants provide a trench doping region that extends from the doped semiconductor layer into the thickened semiconductor substrate.
A control desk comprising a cabinet base, a desk part and a top part, wherein the desk part is arranged on a the cabinet base and projects over the front side thereof, wherein the top part is arranged on the desk part, and wherein the part of the desk part projecting opposite the top part is closable by means of a cover, and that a plurality of snap connectors (68, 70) is operative between the lower side of the desk part and the upper side of the cabinet base, the snap connectors being arranged at least in the edge section of the upper side of the cabinet base, characterized in that a plurality of guide pins (84, 86, 88, 90) is operative between the lower side of the desk part and the upper side of the cabinet base, the guide pins being arranged at least in the edge section of the upper side of the cabinet base.
Microscope with at least one illumination beam path and at least one detection beam path, comprising - a detection device of the at least one detection beam path, - wherein the illumination beam path and the detection beam path are approximately orthogonal to one another in an object illumination region, characterized in that a focussing arrangement is provided at the at least one illumination beam path for generating the linear object illumination region extending in a direction of an illumination axis of the illumination beam path, the linear object illumination region being configured to illuminate linear portions of a sample to be studied; - a device for relative scanning of an object to be studied and the illumination beam path, the device being configured to linearly sample the object to be studied, such that over time a surface-like object illumination region is generated. - a detection device of the at least one detection beam path, - wherein the illumination beam path and the detection beam path are approximately orthogonal to one another in an object illumination region, characterized in that a focussing arrangement is provided at the at least one illumination beam path for generating the linear object illumination region extending in a direction of an illumination axis of the illumination beam path, the linear object illumination region being configured to illuminate linear portions of a sample to be studied; - a device for relative scanning of an object to be studied and the illumination beam path, the device being configured to linearly sample the object to be studied, such that over time a surface-like object illumination region is generated.
An ultrasonic sensor comprising: a case (60, 60A, 60B, 60C, 60D, 60E) having a cylindrical shape with a bottom, the case including a bottom portion and a cylindrical portion and being formed of a member having electrical conductivity; and a piezoelectric element bonded to an inner surface of the bottom portion, the piezoelectric element being configured to perform bending vibration with the bottom portion, a first electrode and a second electrode located on a bonding surface side of the piezoelectric element, wherein application of a voltage forms a potential difference between the first electrode and the second electrode, the bottom portion of the case being provided with a protruding portion protruding toward an opening side of the case at a position distanced from the cylindrical portion of the case, a top surface of the protruding portion including a first top surface portion (62a, 62a1, 62a2) and a second top surface portion having second protrusion height (Tb) higher than a first protrusion height (Ta) of the first top surface portion, the piezoelectric element extends laterally beyond the second top surface portion in a surface direction of the second top surface portion, the piezoelectric element being arranged such that at least a part thereof overlaps with the second top surface portion. a case (60, 60A, 60B, 60C, 60D, 60E) having a cylindrical shape with a bottom, the case including a bottom portion and a cylindrical portion and being formed of a member having electrical conductivity; and a piezoelectric element bonded to an inner surface of the bottom portion, the piezoelectric element being configured to perform bending vibration with the bottom portion, a first electrode and a second electrode located on a bonding surface side of the piezoelectric element, wherein application of a voltage forms a potential difference between the first electrode and the second electrode, the bottom portion of the case being provided with a protruding portion protruding toward an opening side of the case at a position distanced from the cylindrical portion of the case, a top surface of the protruding portion including a first top surface portion (62a, 62a1, 62a2) and a second top surface portion having second protrusion height (Tb) higher than a first protrusion height (Ta) of the first top surface portion, the piezoelectric element extends laterally beyond the second top surface portion in a surface direction of the second top surface portion, the piezoelectric element being arranged such that at least a part thereof overlaps with the second top surface portion.
Electrical device having at least one electrical component (43, 44), which is a capacitor, which is arranged in the housing which has a cooling apparatus which allows heat to be transported from an interior of the housing to the outside, wherein the cooling apparatus comprises at least one cooling opening in the housing, which cooling opening is designed for transporting heat from air heated in the interior of the housing to the outside by means of convection, and wherein the device has damping means for acoustically damping interfering noise created in the interior, wherein the damping means comprise a damping hood which is arranged above the at least one cooling opening and which is provided with a noise-damping material on its side which faces the cooling opening, and wherein a portion of the housing that is covered by the damping hood is provided with a noise-damping material.
A backlight module to be connected to a power board (16, 116) in order to form a lighting device (10, 110) that is used in a display device for illuminating a display panel from a back side, said backlight module comprising: a chassis (13, 113) having substantially a plate-like shape; a relay connector (14, 114) mounted to said chassis (13, 113) so as to be exposed to a back side of said chassis (13, 113), said relay connector (14, 114) including a connecting portion for connection to said power board (16, 116), wherein the connecting portion comprises a wall portion and a board connecting portion arranged along the wall portion; a discharge tube (15, 115) arranged on a front side of said chassis (13, 113) and connected to said relay connector (14, 114); and an optical member mounted to said chassis (13, 113) from the front side so as to cover said discharge tube (15, 115); wherein said connecting portion is adapted for conductive engagement with a connector part of a lighting jig that includes a power supply source and said connector part connected to said power supply source, wherein the wall portion and the board connecting portion are adapted to be fitted into a recess portion of a connector part of the lighting jig, the lighting Jig not forming part of the backlight module; and each of a mounting direction of said discharge tube (15, 115) to said relay connector (14, 114) and a mounting direction of said power board (16, 116) to said relay connector (14, 114) is set to be substantially perpendicular to a surface of said chassis (13, 113). a chassis (13, 113) having substantially a plate-like shape; a relay connector (14, 114) mounted to said chassis (13, 113) so as to be exposed to a back side of said chassis (13, 113), said relay connector (14, 114) including a connecting portion for connection to said power board (16, 116), wherein the connecting portion comprises a wall portion and a board connecting portion arranged along the wall portion; a discharge tube (15, 115) arranged on a front side of said chassis (13, 113) and connected to said relay connector (14, 114); and an optical member mounted to said chassis (13, 113) from the front side so as to cover said discharge tube (15, 115); wherein said connecting portion is adapted for conductive engagement with a connector part of a lighting jig that includes a power supply source and said connector part connected to said power supply source, wherein the wall portion and the board connecting portion are adapted to be fitted into a recess portion of a connector part of the lighting jig, the lighting Jig not forming part of the backlight module; and each of a mounting direction of said discharge tube (15, 115) to said relay connector (14, 114) and a mounting direction of said power board (16, 116) to said relay connector (14, 114) is set to be substantially perpendicular to a surface of said chassis (13, 113).
An automatic dishwashing detergent, comprising: a builder; a surfactant; and a polymer comprising polymerized units derived from at least one carboxylic acid monomer or its salt, at least one allyl glycidyl ether and iminodiacetic acid, said polymer having Formula I: wherein m is an integer from 1 to 6; n is an integer from 1 to 20; each of R and R 1 is, independently, H or CH 3; R 2 is H 2 or =O; and each X is, independently, H, K +, Na +, or ammonium (NH 4 +), wherein the detergent is phosphate-free. a builder; a surfactant; and a polymer comprising polymerized units derived from at least one carboxylic acid monomer or its salt, at least one allyl glycidyl ether and iminodiacetic acid, said polymer having Formula I: wherein m is an integer from 1 to 6; n is an integer from 1 to 20; each of R and R 1 is, independently, H or CH 3; R 2 is H 2 or =O; and each X is, independently, H, K +, Na +, or ammonium (NH 4 +),
Device for processing sheet metal workpieces, having: - at least one pressing tool, which has a tool lower part and a tool upper part; and - a press which has a press table on which the tool lower part is arranged, and a press ram to which the tool upper part is fastened; characterised in that an active protection system is provided for the pressing tool which recognises an idle stroke and then with the aid of at least one actively adjustable distancing device prevents a collision between tool upper part and tool lower part by mechanical distancing of these tool parts (220, 210). - at least one pressing tool, which has a tool lower part and a tool upper part; and - a press which has a press table on which the tool lower part is arranged, and a press ram to which the tool upper part is fastened;
A direct current power supply device for an air conditioner driven by a compressor motor under a heating mode or a cooling mode, comprising: a direct current supply means (2, 4, 12, 3; 2, 4, 5, 6, 3) for converting an AC voltage from an AC power supply to a predetermined DC voltage and supplying the DC voltage to a load of the air conditioner, wherein said load comprises the compressor motor; and a control means for controlling the DC supply means based on a comparison of the DC voltage and a predetermined target voltage so that the DC voltage is held at the target voltage, said target voltage being variable and being supplied to the load; wherein (a) the target voltage is set to gradually increase, for both of the heating mode and the cooling mode, as a rotation speed of the compressor motor increase, and (b) when operating under the heating mode, the target voltage is set to a level greater than the target voltage that is set under the cooling mode, provided that the rotational speed of the compressor motor is the same. a direct current supply means (2, 4, 12, 3; 2, 4, 5, 6, 3) for converting an AC voltage from an AC power supply to a predetermined DC voltage and supplying the DC voltage to a load of the air conditioner, wherein said load comprises the compressor motor; and a control means for controlling the DC supply means based on a comparison of the DC voltage and a predetermined target voltage so that the DC voltage is held at the target voltage, said target voltage being variable and being supplied to the load; wherein (a) the target voltage is set to gradually increase, for both of the heating mode and the cooling mode, as a rotation speed of the compressor motor increase, and (b) when operating under the heating mode, the target voltage is set to a level greater than the target voltage that is set under the cooling mode, provided that the rotational speed of the compressor motor is the same. (a) the target voltage is set to gradually increase, for both of the heating mode and the cooling mode, as a rotation speed of the compressor motor increase, and (b) when operating under the heating mode, the target voltage is set to a level greater than the target voltage that is set under the cooling mode, provided that the rotational speed of the compressor motor is the same.
A supplemental device configured for attachment to an injection device according to claim 10, the supplemental device comprising: a camera configured to generate camera output indicative of a scene viewable by the camera, and to be located on an optical path with a surface of an injection device attached to the supplemental device in use; and a light source (29a-29d) having an emission spectrum and configured to illuminate the surface with light within the emission spectrum in use, characterised in comprising a filter configured to be located on the optical path between the camera and the surface in use, the filter being substantially opaque to light across the entire emission spectrum of the light source and substantially transparent to light of at least one frequency outside the emission spectrum of the light source and emitted as fluorescence from the markings of the sleeve of an injection device according to claim 10. a camera configured to generate camera output indicative of a scene viewable by the camera, and to be located on an optical path with a surface of an injection device attached to the supplemental device in use; and a light source (29a-29d) having an emission spectrum and configured to illuminate the surface with light within the emission spectrum in use, characterised in comprising a filter configured to be located on the optical path between the camera and the surface in use, the filter being substantially opaque to light across the entire emission spectrum of the light source and substantially transparent to light of at least one frequency outside the emission spectrum of the light source and emitted as fluorescence from the markings of the sleeve of an injection device according to claim 10.
Amusement ride, in particular a water amusement ride, having at least one rail guide with at least one, preferably at least two, vehicles, each accommodating at least one passenger and which can travel, guided on the rail guide, along a track in a travel direction, wherein the vehicle comprises a rail vehicle and a floatable boat for accommodating at least one passenger, wherein the boat is coupled to the rail vehicle by means of a connection device which allows for the boat to be floated above the rail vehicle, as well as for a limited transversal and/or longitudinal movement of the boat, when in a floated state, in relation to the rail vehicle, and characterized in that the connection device comprises at least one actuator, by means of which the boat can actively carry out a transversal, longitudinal or lifting movement in relation to the rail vehicle. wherein the vehicle comprises a rail vehicle and a floatable boat for accommodating at least one passenger, wherein the boat is coupled to the rail vehicle by means of a connection device which allows for the boat to be floated above the rail vehicle, as well as for a limited transversal and/or longitudinal movement of the boat, when in a floated state, in relation to the rail vehicle, and characterized in that the connection device comprises at least one actuator, by means of which the boat can actively carry out a transversal, longitudinal or lifting movement in relation to the rail vehicle.
A printing system having an intermediate transfer member in the form of an endless belt for transporting an ink image from an image forming station, at which an ink image is deposited on the intermediate transfer member, to an impression station, where the ink image is transferred onto a printing substrate, the belt having along its edges formations of a greater thickness than the belt, which formations are received in channels to guide the belt and maintain the belt under lateral tension, the printing system further comprises two endless drive members, each located within a respective one of the channels, the two drive members being connected for movement in synchronism with one another and each having a respective laterally projecting gripper shaped for form locking engagement with the formations on a leading end of a strip from which the intermediate transfer member is to be formed, rotation of the drive members during installation of a new intermediate transfer member being operative to thread the strip through the printing system by pulling the strip from its leading end.