mhurhangee/ep-ind-claims huggingface dataset:
A semiconductor light emitting device comprising: a substrate; a plurality of light emitting cells arrayed on the top surface of the substrate, the light emitting cells each having a first-conductivity-type semiconductor layer, an active layer, and a second-conductivity-type semiconductor layer that are sequentially stacked on the top surface of the substrate; a connection part formed to connect the light emitting cells in series, parallel or series-parallel, the connection part comprising at least one first connection part connected to the first-conductivity-type semiconductor layer of the light emitting cells, and at least one second connection part connected to the second-conductivity-type semiconductor layer of the light emitting cells, at least one first bonding pad connected to the first connection part, and at least one second bonding pad connected to the second connection part; an isolation region of the light emitting cell provided as a region obtained by completely removing a semiconductor multilayer structure to expose the surface of the substrate; and a concavo-convex part formed in at least one of the bottom surface of the substrate and the top surface of an isolation region between the light emitting cells; wherein the light emitting cells have the same active layer area, one of the light emitting cells (Cb) has a first-conductivity-type semiconductor exposing region wider than the first-conductivity-type semiconductor exposing region of another light emitting cell (Ca), and the first bonding pad is formed on the first-conductivity-type semiconductor exposing region of one of the light emitting cells. a substrate; a plurality of light emitting cells arrayed on the top surface of the substrate, the light emitting cells each having a first-conductivity-type semiconductor layer, an active layer, and a second-conductivity-type semiconductor layer that are sequentially stacked on the top surface of the substrate; a connection part formed to connect the light emitting cells in series, parallel or series-parallel, the connection part comprising at least one first connection part connected to the first-conductivity-type semiconductor layer of the light emitting cells, and at least one second connection part connected to the second-conductivity-type semiconductor layer of the light emitting cells, at least one first bonding pad connected to the first connection part, and at least one second bonding pad connected to the second connection part; an isolation region of the light emitting cell provided as a region obtained by completely removing a semiconductor multilayer structure to expose the surface of the substrate; and a concavo-convex part formed in at least one of the bottom surface of the substrate and the top surface of an isolation region between the light emitting cells;
A coating apparatus comprising: a coating application unit comprising a movement restriction structure; a fluid applicator; an air nozzle; and a rotation mechanism; and an axial motion mechanism, the axial motion mechanism configured to cause movement of at least one of the coating application unit and the rotation mechanism with respect to one another, characterized by the movement restriction structure comprising a first body member and a second body member, the first body member defining a first portion of a channel and the second body member defining a second portion of a channel, the first body member and second body member configured to rotate between a closed position where a balloon is locked in place in the channel and an open position where the balloon is released. a coating application unit comprising a movement restriction structure; a fluid applicator; an air nozzle; and a rotation mechanism; and an axial motion mechanism, the axial motion mechanism configured to cause movement of at least one of the coating application unit and the rotation mechanism with respect to one another, characterized by the movement restriction structure comprising a first body member and a second body member, the first body member defining a first portion of a channel and the second body member defining a second portion of a channel, the first body member and second body member configured to rotate between a closed position where a balloon is locked in place in the channel and an open position where the balloon is released.
Head board assembly of a log transporting apparatus characterized by at least one lateral head board extension, connected to a head board or a structure holding the head board by means of a pivot joint, the pivot joint having one interface to be connected to the head board or the structure and one interface to be connected to the head board extension of the log transporting apparatus and having a pivot axle connected to both interfaces (46, 48), whereas a spring allowing a movement in the direction of a pivot axis is provided at or between the interfaces (46, 48).
A decompression device for an internal combustion engine, comprising a valve rocker shaft bracket and a valve stem, wherein a valve spring is sleeved on the valve stem, and a valve rocker is arranged above the valve stem, wherein the valve rocker shaft bracket is fixed to a decompression bracket, and wherein the valve rocker is movably arranged with respect to a valve opening/closing device connected with a control device; the valve opening/closing device being a device that, when the valve rocker moves downwards before the internal combustion engine is stopped, a space is generated between the valve rocker and a decompression shaft, the valve opening/closing device receives a control command from the control device to move towards the direction of the valve rocker so that a spacer (6; 8; 16) is inserted in the space and the valve stem cannot arrive at a valve closing position, and the valve is at an open state; when the internal combustion engine is started, the valve opening/closing device receives a control command from the control device to maintain the spacer (6; 8; 16) between the valve rocker and the decompression shaft for a time, and then disconnect, and the valve stem arrives at the valve closing position; the control device is a device which sends a command to the valve opening/closing device to keep connecting or disconnecting with the valve rocker.
Protection device (1, 1') for persons to protect a lower portion of a person's leg, said protection device for persons (1, 1') comprising a main body (2, 2'), in which a through cavity is obtained, configured to receive a lower portion of a person's leg, said main body (2, 2') comprising: a front portion (5, 5 ') configured to cover at least a portion of the person's tibia when said protection device for persons (1, 1') is worn by said person; and a side and rear portion (6, 6') configured to cover at least a portion of the fibula of said person, when said protection device for persons (1, 1') is worn by said person; said side and rear portion (6, 6') extending laterally from at least a lower region of said front portion (5, 5'); wherein said front portion (5, 5') and said lateral and rear portion (6, 6') are formed in one piece; wherein between said front portion (5, 5') and said side and rear portion (6, 6') a side opening is formed for allowing a person to wear said device (1, 1') approaching, laterally, said device (1, 1') to the leg of said person; and wherein said lateral and rear portion (6, 6') and a lower strip of said front portion (5, 5') jointly develop around said axis forming an angle of about 270° with respect to said axis, characterized in that said front portion (5, 5') has a height greater than the height of said side and rear portion (6, 6'). a front portion (5, 5 ') configured to cover at least a portion of the person's tibia when said protection device for persons (1, 1') is worn by said person; and a side and rear portion (6, 6') configured to cover at least a portion of the fibula of said person, when said protection device for persons (1, 1') is worn by said person; said side and rear portion (6, 6') extending laterally from at least a lower region of said front portion (5, 5');
A method of controlling an electrically-driven actuator, the method comprising: receiving an input voltage at a voltage boost converter of an electrical positioning driver in an actuation system; applying an output voltage of the voltage boost converter to a variable voltage bus of the electrical positioning driver; converting a voltage on the variable voltage bus to an actuator power signal (107, 207) that controls a position of the electrically-driven actuator; characterised by receiving a load status at the voltage boost converter, the load status comprising load status information relating to the position of the electrically-driven actuator; and boosting the voltage on the variable voltage bus, by operation of the voltage boost converter based on the load status, to control performance of the electrically-driven actuator. receiving an input voltage at a voltage boost converter of an electrical positioning driver in an actuation system; applying an output voltage of the voltage boost converter to a variable voltage bus of the electrical positioning driver; converting a voltage on the variable voltage bus to an actuator power signal (107, 207) that controls a position of the electrically-driven actuator; characterised by receiving a load status at the voltage boost converter, the load status comprising load status information relating to the position of the electrically-driven actuator; and boosting the voltage on the variable voltage bus, by operation of the voltage boost converter based on the load status, to control performance of the electrically-driven actuator.
A plate type rotational separator, comprising: - a carrier that is rotatable around an axial axis thereof; and - a plurality of plates extending in an axial direction of, and in a radial outward direction relative to, the axial axis of the carrier; - wherein each of the plurality of plates comprises at least one support extending transverse to a surface of the plate and in a circumferential direction relative to the axial axis of the carrier, to thereby provide circumferential support for said plate when the support of said plate is supported on an adjacent plate of the plurality of plates during rotation of the carrier characterized in that the plurality of plates comprises at least plates of a first type and plates of a second type, wherein the plates of the first type have their respective at least one support arranged at a first radial distance relative to the carrier and the plates of the second type have their respective at least one support arranged at a second radial distance relative to the carrier, said second radial distance being different from the first radial distance. - a carrier that is rotatable around an axial axis thereof; and - a plurality of plates extending in an axial direction of, and in a radial outward direction relative to, the axial axis of the carrier; - wherein each of the plurality of plates comprises at least one support extending transverse to a surface of the plate and in a circumferential direction relative to the axial axis of the carrier, to thereby provide circumferential support for said plate when the support of said plate is supported on an adjacent plate of the plurality of plates during rotation of the carrier characterized in that the plurality of plates comprises at least plates of a first type and plates of a second type, wherein the plates of the first type have their respective at least one support arranged at a first radial distance relative to the carrier and the plates of the second type have their respective at least one support arranged at a second radial distance relative to the carrier, said second radial distance being different from the first radial distance. - wherein each of the plurality of plates comprises at least one support extending transverse to a surface of the plate and in a circumferential direction relative to the axial axis of the carrier, to thereby provide circumferential support for said plate when the support of said plate is supported on an adjacent plate of the plurality of plates during rotation of the carrier characterized in that the plurality of plates comprises at least plates of a first type and plates of a second type, wherein the plates of the first type have their respective at least one support arranged at a first radial distance relative to the carrier and the plates of the second type have their respective at least one support arranged at a second radial distance relative to the carrier, said second radial distance being different from the first radial distance.
Method for producing transfer paper for dye sublimation printing processes comprising the process steps: a) providing a cellulose or an aqueous cellulose suspension, b) producing a suspension of the cellulose in water with a water content of at least 90 % by weight, c) optionally adding additives, fillers or process chemicals to the aqueous suspension, d) dewatering the suspension to a water content of 60 % by weight to 85 % by weight by means of a wire section, e) drying the dewatered suspension to a paper web with a water content of 30 % by weight to 55 % by weight by means of a press section, f) further drying of the paper web to a water content of 1 % by weight to 10 % by weight by means of a dryer section, g) coating at least one of the surfaces of the paper web by means of a coating device by applying an aqueous solution of a modified starch, which starch is cationically modified and has a degree of substitution by cationic groups of 0.03 to 0.6 mol/mol, h) post-drying of the coated paper web by means of a further dryer section to a water content of 3 % by weight to 7% by weight, i) finishing of the coated and post-dried paper web. a) providing a cellulose or an aqueous cellulose suspension, b) producing a suspension of the cellulose in water with a water content of at least 90 % by weight, c) optionally adding additives, fillers or process chemicals to the aqueous suspension, d) dewatering the suspension to a water content of 60 % by weight to 85 % by weight by means of a wire section, e) drying the dewatered suspension to a paper web with a water content of 30 % by weight to 55 % by weight by means of a press section, f) further drying of the paper web to a water content of 1 % by weight to 10 % by weight by means of a dryer section, g) coating at least one of the surfaces of the paper web by means of a coating device by applying an aqueous solution of a modified starch, which starch is cationically modified and has a degree of substitution by cationic groups of 0.03 to 0.6 mol/mol, h) post-drying of the coated paper web by means of a further dryer section to a water content of 3 % by weight to 7% by weight, i) finishing of the coated and post-dried paper web.
Gas safety valve adapted for a cooking appliance, comprising an electromagnet comprising a core, a reel (10; 10'; 10') inserted in the core, and a coil supported on the reel (10; 10'; 10'), the coil comprising a phase wire and a grounding wire, a support of the electromagnet, and a phase connector, characterized in that the reel (10; 10'; 10") comprises a projection (17; 17'; 17") extending axially and comprising a first electrical contact area in which a segment of the phase wire is arranged, and a second electrical contact area in which a segment of the grounding wire is arranged, wherein the first electrical contact area is arranged inserted in the phase connector and the second electrical contact area is arranged inserted in the support, both electrical contact areas (A, B) exerting an elastic force against the phase connector and the support, respectively, assuring the electrical connection between the phase conductor and the phase connector, and between the grounding wire and the support, respectively.
Composition for diagnostic and/or therapeutic imaging which comprises a mixture of at least two different preparations of gas-filled microvesicles, wherein: a) said at least two different preparations are microbubbles stabilized by a film layer of an amphiphilic material and having respective size distributions with different median sizes, said median sizes being defined by a respective first and second median diameter in volume (D v50), said first and second D V50 differing from each other by a value of at least 0.5 μm; b) at least 95% of the total volume of gas contained in said microvesicles, determined on a population of microvesicles with a diameter up to 10 μm, is contained in microvesicles having a diameter of 8 μm or less; and c) said at least two different preparations have respective peaks of non-linear echographic response differing by at least 2 MHz to each other. a) said at least two different preparations are microbubbles stabilized by a film layer of an amphiphilic material and having respective size distributions with different median sizes, said median sizes being defined by a respective first and second median diameter in volume (D v50), said first and second D V50 differing from each other by a value of at least 0.5 μm; b) at least 95% of the total volume of gas contained in said microvesicles, determined on a population of microvesicles with a diameter up to 10 μm, is contained in microvesicles having a diameter of 8 μm or less; and c) said at least two different preparations have respective peaks of non-linear echographic response differing by at least 2 MHz to each other.
A primary AA alkaline battery comprising: an anode, the anode comprising an electrochemically active anode material; a cathode, the cathode comprising an electrochemically active cathode material; an electrolyte, the electrolyte comprising potassium hydroxide; and a separator therebetween the anode and the cathode; and an integrated in-cell ionic resistance (R i) at 22 °C of less than about 39 mΩ; wherein the electrochemically active cathode material comprises electrolytic manganese dioxide, the electrolytic manganese dioxide having a specific cathode loading from about 2.9 g/cm 3 to about 3.45 g/cm 3; the separator has a porosity of greater than 75%. an anode, the anode comprising an electrochemically active anode material; a cathode, the cathode comprising an electrochemically active cathode material; an electrolyte, the electrolyte comprising potassium hydroxide; and a separator therebetween the anode and the cathode; and an integrated in-cell ionic resistance (R i) at 22 °C of less than about 39 mΩ; wherein the electrochemically active cathode material comprises electrolytic manganese dioxide, the electrolytic manganese dioxide having a specific cathode loading from about 2.9 g/cm 3 to about 3.45 g/cm 3; the separator has a porosity of greater than 75%.
Releasing assembly comprising: - two releasing forks for actuating springs of push-in terminals, each releasing fork comprising a handle and a plurality of prongs linked to and extending from the handle, each prong extending according to a corresponding extension direction and comprising an end fraction and a main fraction linking the end fraction to the handle, the end fraction having a decreasing section along the extension direction by moving away from the main fraction and the main fraction presenting two opposed and parallel cooperation surfaces extending parallel to the extension direction and defining a constant thickness of the main fraction, wherein, for each prong, the end fraction presenting a contact surface that is inclined with respect to the contiguous cooperation surface of the main fraction, - a three phase connection device, the three phase connection device comprising an alignment of six electrical connectors extending in parallel, characterized in that each electrical connector of a first group of three consecutive electrical connectors is electrically linked to a single corresponding electrical connector of a distinct second group of three consecutive electrical connectors, wherein the releasing assembly further comprises a latch mechanism configured to releasably fix the two releasing forks on a back surface of the three phase connection device, the back surface being located opposite to the electrical connectors. - two releasing forks for actuating springs of push-in terminals, each releasing fork comprising a handle and a plurality of prongs linked to and extending from the handle, each prong extending according to a corresponding extension direction and comprising an end fraction and a main fraction linking the end fraction to the handle, the end fraction having a decreasing section along the extension direction by moving away from the main fraction and the main fraction presenting two opposed and parallel cooperation surfaces extending parallel to the extension direction and defining a constant thickness of the main fraction, wherein, for each prong, the end fraction presenting a contact surface that is inclined with respect to the contiguous cooperation surface of the main fraction, - a three phase connection device, the three phase connection device comprising an alignment of six electrical connectors extending in parallel, each electrical connector of a first group of three consecutive electrical connectors is electrically linked to a single corresponding electrical connector of a distinct second group of three consecutive electrical connectors, wherein the releasing assembly further comprises a latch mechanism configured to releasably fix the two releasing forks on a back surface of the three phase connection device, the back surface being located opposite to the electrical connectors.
A battery module, comprising: a cell holder having a plurality of battery cell insertion portions and at least one fire extinguishing cell insertion portion; a plurality of battery cells respectively located in the battery cell insertion portions; and at least one fire extinguishing cell located in the fire extinguishing cell insertion portion, wherein the fire extinguishing cell includes: an agent tube configured to accommodate a fire extinguishing agent; a tube case configured to accommodate the agent tube through an opening formed in at least one of upper and lower ends thereof; and a case cover configured to cover the opening, characterized in that the agent tube is made of a resin melting at a reference temperature, and thereby is configured to break and eject the fire extinguishing agent when a temperature inside of the battery module reaches the reference temperature or above. a cell holder having a plurality of battery cell insertion portions and at least one fire extinguishing cell insertion portion; a plurality of battery cells respectively located in the battery cell insertion portions; and at least one fire extinguishing cell located in the fire extinguishing cell insertion portion, wherein the fire extinguishing cell includes: an agent tube configured to accommodate a fire extinguishing agent; a tube case configured to accommodate the agent tube through an opening formed in at least one of upper and lower ends thereof; and a case cover configured to cover the opening, characterized in that the agent tube is made of a resin melting at a reference temperature, and thereby is configured to break and eject the fire extinguishing agent when a temperature inside of the battery module reaches the reference temperature or above. an agent tube configured to accommodate a fire extinguishing agent; a tube case configured to accommodate the agent tube through an opening formed in at least one of upper and lower ends thereof; and a case cover configured to cover the opening, characterized in that the agent tube is made of a resin melting at a reference temperature, and thereby is configured to break and eject the fire extinguishing agent when a temperature inside of the battery module reaches the reference temperature or above.