mhurhangee/ep-ind-claims huggingface dataset:
An image forming apparatus (100, 200, 300, 400, 500) configured to discharge droplets, while moving a recording head relative to a recording medium in a main scanning direction and a sub-scanning direction, to form an image, the image forming apparatus (100, 200, 300, 400, 500) comprising: a carriage (114, 124, 214, 314, 324); a first recording head that has a first discharge face having a hole, that is disposed on the carriage (114, 124, 214, 314, 324), that is configured to discharge a first droplet containing resin through the hole, and that is included in the recording head; a second recording head that has a second discharge face having a hole, that is disposed on the carriage (114, 124, 214, 314, 324), that is configured to discharge, through the hole, a second droplet containing less resin than the resin contained in the first droplet, and that is included in the recording head; a first cleaning device configured to wipe the first discharge face to clean the first recording head; and a second cleaning device that is different from the first cleaning device and that is configured to wipe the second discharge face to clean the second recording head; characterized in that the first cleaning device includes a wet roller, and the second cleaning device includes a dry blade. a carriage (114, 124, 214, 314, 324); a first recording head that has a first discharge face having a hole, that is disposed on the carriage (114, 124, 214, 314, 324), that is configured to discharge a first droplet containing resin through the hole, and that is included in the recording head; a second recording head that has a second discharge face having a hole, that is disposed on the carriage (114, 124, 214, 314, 324), that is configured to discharge, through the hole, a second droplet containing less resin than the resin contained in the first droplet, and that is included in the recording head; a first cleaning device configured to wipe the first discharge face to clean the first recording head; and a second cleaning device that is different from the first cleaning device and that is configured to wipe the second discharge face to clean the second recording head; characterized in that the first cleaning device includes a wet roller, and the second cleaning device includes a dry blade.
Beneath-steering-wheel control module comprising: - a control lever pivoting about an axis of pivoting, having a first actuating member that rotates as one with a first rotary ring of the control lever and a second actuating member that rotates as one with a second rotary ring of the control lever, the first and second actuating members (8a, 8b) pivoting as one with the control lever, and - one first and one second contact carriage (10a, 10b) for establishing rubbing contact with associated contact tracks of an electric circuit of the beneath-steering-wheel control module, the first and second actuating members (8a, 8b) being arranged at a same level on the control lever and centered about the axis of pivoting of the control lever, said beneath-steering-wheel control module comprising a first and a second intermediate drive element (9a, 9b) which are respectively driven by the first and second actuating members (8a, 8b) and which drive the translational movement of the respective first and second contact carriages (10a, 10b), characterized in that the first and second actuating members (8a, 8b) are arranged at the level of the axis of pivoting of the control lever in order respectively to drive the rotation of the first and second intermediate drive elements (9a, 9b) about a respective axis of rotation (O'-O', O"-O") perpendicular to the axis of pivoting of the control lever. - a control lever pivoting about an axis of pivoting, having a first actuating member that rotates as one with a first rotary ring of the control lever and a second actuating member that rotates as one with a second rotary ring of the control lever, the first and second actuating members (8a, 8b) pivoting as one with the control lever, and - one first and one second contact carriage (10a, 10b) for establishing rubbing contact with associated contact tracks of an electric circuit of the beneath-steering-wheel control module,
An electromagnetic contactor comprising: a lower frame; an upper frame coupled to an upper portion of the lower frame; and an arc cover coupled to an upper portion of the upper frame; wherein a first coupling part protrudes from one surface of the lower frame such that a fastening member is coupled, a second coupling part protrudes from one surface of the upper frame and is connected to the first coupling part, such that the fastening member is fastened, and a third coupling part protrudes from one surface of the arc cover and is connected to the second coupling part, such that the fastening member is fastened, and wherein the fastening member is coupled through the first coupling part, the second coupling part, and the third coupling part, characterized in that the first coupling part has a predetermined length from an upper end portion of the lower frame, and is shorter than a length of the lower frame, wherein the second coupling part has a length from an upper end portion to a lower end portion of the upper frame, wherein the third coupling part has a predetermined length from a lower end portion of the arc cover and is shorter than a length of the arc cover, characterised in that a first auxiliary fastening hole is formed through the first coupling part, a second auxiliary fastening hole is formed through the second coupling part, and an auxiliary fastening member is provided to be coupled through the first auxiliary fastening hole and the second auxiliary fastening hole. a lower frame; an upper frame coupled to an upper portion of the lower frame; and an arc cover coupled to an upper portion of the upper frame; wherein a first coupling part protrudes from one surface of the lower frame such that a fastening member is coupled, a second coupling part protrudes from one surface of the upper frame and is connected to the first coupling part, such that the fastening member is fastened, and a third coupling part protrudes from one surface of the arc cover and is connected to the second coupling part, such that the fastening member is fastened, and wherein the fastening member is coupled through the first coupling part, the second coupling part, and the third coupling part, characterized in that the first coupling part has a predetermined length from an upper end portion of the lower frame, and is shorter than a length of the lower frame, wherein the second coupling part has a length from an upper end portion to a lower end portion of the upper frame, wherein the third coupling part has a predetermined length from a lower end portion of the arc cover and is shorter than a length of the arc cover, characterised in that a first auxiliary fastening hole is formed through the first coupling part, a second auxiliary fastening hole is formed through the second coupling part, and an auxiliary fastening member is provided to be coupled through the first auxiliary fastening hole and the second auxiliary fastening hole.
An industrial truck comprising a drive part and a load part, wherein the load part comprises a load fork and a fork frame as well as a pallet holder arranged at an upper end of the fork frame for securing at least one pallet (100, 102, 102') standing vertically on the load fork, wherein the pallet holder comprises at least one holding element (24, 26) that is mounted so as to be pivotable between a holding position, in which it engages behind the at least one pallet (100, 102, 102'), and a release position, in which it releases the at least one pallet (100, 102, 102'), wherein the at least one holding element (24, 26) is preloaded into the holding position, characterized in that at least two holding bars (24, 26) that can pivot one into the other and that are formed from wire are provided as the holding elements (24, 26), wherein an inner holding bar can be pivoted between a holding position, in which it engages behind a first pallet (100, 102), and a release position, in which it releases the first pallet (100, 102), and an outer holding bar can be pivoted between a holding position, in which it engages behind a second pallet, and a release position, in which it releases the second pallet, and the holding bars (24, 26) each comprise two leg portions (32, 42) and one holding portion (34, 33) that connects the two respective leg portions (32, 43) for engaging behind the relevant pallet (100, 102, 102').
A low voltage ride through detecting device for a grid-connected photovoltaic inverter, said device including for each of three phases (A, B, C) a current limiting reactor (Lx), a short circuit reactor (Ld) and an intermediate reactor-breaker unit, said device further including a switch unit (Sd); wherein each intermediate reactor-breaker unit is connected to the corresponding current limiting reactor (Lx) and the short circuit reactor (Ld), the switch unit (Sd) is connected to each of the short circuit reactors (Ld); wherein said current limiting reactors (Lx) are configured to be connected to the respective three phases of a 10 kV power grid; the intermediate reactor-breaker units are configured to be connected to the respective three phases of the high voltage grid side of a reducing transformer and the switch unit (Sd) is configured to be connected to the neutral point of the high voltage grid side of the reducing transformer; wherein said transformer is connected to the grid-connected photovoltaic inverter; wherein each current limiting reactor (Lx) is one with an adjustable parameter; a parameter of each short circuit reactor (Ld) is also adjustable; characterised in that, each intermediate reactor-breaker unit comprises first, second, third and fourth intermediate reactors (L1, L2, L3, L4) and first, second, third, fourth and fifth circuit breakers (S1, S2, S3, S4, S5) wherein the first circuit breaker is connected between a connection point of the first intermediate reactor and corresponding current limiting reactor (Lx) and the transformer; wherein the second circuit breaker is connected between a connection point of the first intermediate reactor and second intermediate reactor and the transformer; wherein the third circuit breaker is connected between a connection point of the second intermediate reactor and third intermediate reactor and the transformer; wherein the fourth circuit breaker is connected between a connection point of the third intermediate reactor and fourth intermediate reactor and the transformer; wherein the fifth circuit breaker is connected between a connection point of the fourth intermediate reactor and corresponding short circuit reactor (Ld) and the transformer; said switch unit (Sd) is a combination of circuit breakers, said combination including: first, second and third three phase circuit breakers (QS1, QS2, QS3) which are configured to connect each phase of the detecting device, respectively, and control the tripping and closing formation fault type of each phase (A, B, C) individually; a sixth circuit breaker which is configured to control whether the detecting device is ground shorted or not; a seventh circuit breaker which is configured to accomplish the first voltage sags of the detecting device; an eighth circuit breaker which is configured to accomplish the second voltage sags of the detecting device.
A method for producing an amorphous carbon material for the negative electrode of a lithium ion secondary battery, comprising a step of coking treatment of a stock oil composition obtained by combining two or more different stock oils selected from among vacuum residue oil, FCC heavy oil and desulfurized heavy oil produced in the petroleum refining process, followed by a step of calcining at a temperature of 1350-1450°C to obtain the amorphous carbon material having a true density of 1.800-2.165 g/cm 3, but having a true density of 2.255 g/cm 3 or greater, and having a mean interlayer distance d 002 of no greater than 0.3361 nm according to X-ray diffraction when the amorphous carbon material is subjected to graphitizing in an inert gas atmosphere at a temperature of 3000°C.
A method for producing solar cells, comprising the steps of - providing silicon containing vitreous substrates, each provided with an electrically conductive material on at least one side thereof, - successively transporting at least a portion of each substrate through an electrolytic solution that is present in an electrolytic bath, wherein a sloping slot is provided in at least one wall, more preferably in two mutually opposed walls, of the electrolytic bath and wherein panels with holes therein are provided at mutually opposed sides of the path followed by the substrates through the electrolytic bath, - connecting said electrically conductive material to act as a cathode during the transport of the substrates through the electrolytic bath for the purpose of electrodepositing material from the electrolytic solution onto the electrically conductive material during said transport, characterised in that the substrates are suspended from a conveyor element during transport and extend in the transport direction. - providing silicon containing vitreous substrates, each provided with an electrically conductive material on at least one side thereof, - successively transporting at least a portion of each substrate through an electrolytic solution that is present in an electrolytic bath, wherein a sloping slot is provided in at least one wall, more preferably in two mutually opposed walls, of the electrolytic bath and wherein panels with holes therein are provided at mutually opposed sides of the path followed by the substrates through the electrolytic bath, - connecting said electrically conductive material to act as a cathode during the transport of the substrates through the electrolytic bath for the purpose of electrodepositing material from the electrolytic solution onto the electrically conductive material during said transport,
A method for identifying a flow of commodity through a commodity distribution system, comprising: providing a tank (30, 32, 34, 36) configured to contain a commodity; selectively distributing commodity from the tank (30, 32, 34, 36) to a drill assembly to be distributed to an underlying surface; and monitoring the flow of commodity from the tank (30, 32, 34, 36) to the drill assembly with a camera (214, 224, 226, 304, 306, 1002, 1106, 1108, 1110, 1112) to identify flow characteristics, characterized in that the flow characteristics comprise a roller speed. providing a tank (30, 32, 34, 36) configured to contain a commodity; selectively distributing commodity from the tank (30, 32, 34, 36) to a drill assembly to be distributed to an underlying surface; and monitoring the flow of commodity from the tank (30, 32, 34, 36) to the drill assembly with a camera (214, 224, 226, 304, 306, 1002, 1106, 1108, 1110, 1112) to identify flow characteristics, characterized in that the flow characteristics comprise a roller speed.
An implantable medical device assembly comprising: a mounting structure having a length defined from a proximal end thereof to a distal end thereof, a thickness defined from a first surface thereof to a second surface thereof, and a width defined from a first side thereof to a second side thereof, the mounting structure comprising first and second shoulders (311-S) formed in the first surface of the structure and aligned along the length of the structure, the first shoulder being adjacent to the first side of the structure, and the second shoulder being adjacent to the second side of the structure; an electrode protruding from the first surface of the mounting structure; and a first tissue-penetrating fixation tine and a second tissue-penetrating fixation tine, wherein the first and second tissue-penetrating fixation tines are located on opposite sides of the electrode, and wherein each of the first and second tissue-penetrating fixation tines includes a pre-formed V-shaped segment that has a piercing tip, that extends away from a corresponding shoulder of the first surface of the mounting structure, and that is elastically deformable between a relaxed condition and an extended condition, the relaxed condition being that of the pre-formed V-shape, the extended condition being that in which each of the pre-formed V-shaped segment bends toward the distal end of the mounting structure and extends along the corresponding shoulder of the mounting structure so that each piercing tip is located distal to the electrode. a mounting structure having a length defined from a proximal end thereof to a distal end thereof, a thickness defined from a first surface thereof to a second surface thereof, and a width defined from a first side thereof to a second side thereof, the mounting structure comprising first and second shoulders (311-S) formed in the first surface of the structure and aligned along the length of the structure, the first shoulder being adjacent to the first side of the structure, and the second shoulder being adjacent to the second side of the structure; an electrode protruding from the first surface of the mounting structure; and a first tissue-penetrating fixation tine and a second tissue-penetrating fixation tine, wherein the first and second tissue-penetrating fixation tines are located on opposite sides of the electrode, and wherein each of the first and second tissue-penetrating fixation tines includes a pre-formed V-shaped segment that has a piercing tip, that extends away from a corresponding shoulder of the first surface of the mounting structure, and that is elastically deformable between a relaxed condition and an extended condition, the relaxed condition being that of the pre-formed V-shape, the extended condition being that in which each of the pre-formed V-shaped segment bends toward the distal end of the mounting structure and extends along the corresponding shoulder of the mounting structure so that each piercing tip is located distal to the electrode.
A nozzle housing assembly, which is used in a convection heating furnace for a heat treatable glass sheet and which nozzle housing assembly comprises an elongated enclosure, at least one elongated heating resistance in the enclosure for heating convection air, and orifices in a bottom surface of the enclosure for blasting heated convection air against the glass sheet, characterized in that the enclosure is divided with a flow-throttling partition into a top supply duct and a bottom nozzle box, the heating resistances being housed in the latter, and in that flow-throttling openings present in the partition are positioned to comply with the location and shape of the heating resistances.
A rotary transformer (100; 200) for an electrical machine, comprising: a rotary printed circuit board (102A; 202A); a stator printed circuit board (102; 202) operatively connected to the rotary printed circuit board for relative rotation; and a conductor fixed to each of the printed circuit boards, wherein each conductor includes a spiral coil (108, 108A; 220, 230, 240, 250; 220A, 240A) configured to transfer electrical energy between the rotary printed circuit board and the stator printed circuit board; wherein the coil (220; 220A) is a first coil and wherein the printed circuit board further includes a second coil (230, 230A), the first and second coils are radially offset from a rotation axis of the rotary transformer; and wherein the first and second coils are planar. a rotary printed circuit board (102A; 202A); a stator printed circuit board (102; 202) operatively connected to the rotary printed circuit board for relative rotation; and a conductor fixed to each of the printed circuit boards, wherein each conductor includes a spiral coil (108, 108A; 220, 230, 240, 250; 220A, 240A) configured to transfer electrical energy between the rotary printed circuit board and the stator printed circuit board; wherein the coil (220; 220A) is a first coil and wherein the printed circuit board further includes a second coil (230, 230A), the first and second coils are radially offset from a rotation axis of the rotary transformer; and wherein the first and second coils are planar.
An alerting apparatus comprising: an obtainer that obtains a group of images of a group of objects imaged by a stereo camera mounted on a head-mounted display, the stereo camera providing a right image and a left image; a detector that detects pairs of imaged objects approaching each other, in accordance with positions and parallaxes of each pair of the plurality of imaged objects, based on the obtained group of images, when a distance between the objects in a pair in the right image has been shortened over time, a distance between the objects in the pair in the left image has been shortened over time and a difference between the parallaxes of the objects in the pair has become smaller over time; and an outputter that outputs an alert relating to the degree of approach of the pair of objects detected by the detector. an obtainer that obtains a group of images of a group of objects imaged by a stereo camera mounted on a head-mounted display, the stereo camera providing a right image and a left image; a detector that detects pairs of imaged objects approaching each other, in accordance with positions and parallaxes of each pair of the plurality of imaged objects, based on the obtained group of images, when a distance between the objects in a pair in the right image has been shortened over time, a distance between the objects in the pair in the left image has been shortened over time and a difference between the parallaxes of the objects in the pair has become smaller over time; and an outputter that outputs an alert relating to the degree of approach of the pair of objects detected by the detector.
Arrangement of interconnects for error determination for a semiconductor circuit, the interconnects preferably being arranged on one plane of the semiconductor circuit, wherein • the arrangement has multiple sections (112, 113, 114, 115, 116), wherein the sections (112, 113, 114, 115, 116) being arranged as a series circuit, wherein • each section (112, 113, 114, 115, 116) has a number of interconnects, wherein • the number of interconnects in the respective sections (112, 113, 114, 115, 116) is different, wherein • each section (112, 113, 114, 115, 116) has a starting region and an end region, a voltage difference value between the starting region and the end region of the respective section (112, 113, 114, 115, 116) being detectable, and the voltage difference values of the respective sections (112, 113, 114, 115, 116) being different in the event of error, • wherein the interconnects of each section (112, 113, 114, 115, 116) are of the same length, have the same width and are arranged parallel to one another. • the arrangement has multiple sections (112, 113, 114, 115, 116), wherein the sections (112, 113, 114, 115, 116) being arranged as a series circuit, wherein • each section (112, 113, 114, 115, 116) has a number of interconnects, wherein • the number of interconnects in the respective sections (112, 113, 114, 115, 116) is different, wherein • each section (112, 113, 114, 115, 116) has a starting region and an end region, a voltage difference value between the starting region and the end region of the respective section (112, 113, 114, 115, 116) being detectable, and the voltage difference values of the respective sections (112, 113, 114, 115, 116) being different in the event of error, • wherein the interconnects of each section (112, 113, 114, 115, 116) are of the same length, have the same width and are arranged parallel to one another.