mhurhangee/ep-ind-claims huggingface dataset:
A method for laminating fiber-reinforced thermoplastic resin prepreg comprising: forming a flat layer made of a plurality of fiber-reinforced thermoplastic resin prepreg tapes by means of a stitching process in which each fiber-reinforced thermoplastic resin prepreg tape is placed on a sheet-shaped base material at a desired position and direction, stitched thereto, and cut in a desired length; forming at least another flat layer made of a plurality of fiber-reinforced thermoplastic resin prepreg tapes by means of a subsequent stitching process in which each fiber-reinforced thermoplastic resin prepreg tape is placed on the preceding flat layer made of the plurality of fiber-reinforced thermoplastic resin prepreg tapes at a desired position and direction to thereby form a near net shape of plural layers having a predetermined shape.
An additive for a polymerizable composition containing a compound represented by the following general formula: wherein M represents Sn; R represents an alkylene group having 1 to 3 carbon atoms; n represents an integer of 2; X represents an alkylsulfanyl group having 1 to 3 carbon atoms or a group represented by the following general formula: wherein R and M have the same meaning as above, and R 1 represents an alkylene group having 1 to 3 carbon atoms; a plurality of X may be the same as or different from each other; and if two or more groups X are bonded with the metal atom M, the groups X may combine together to form a ring.
An optoelectronic device comprising: a semiconductor substrate having a surface; light-emitting diodes supported by the surface comprising wire-shaped, conical, or tapered semiconductor elements, each semiconductor element being mainly made of a III-V compound; and an at least partially transparent dielectric layer covering the light-emitting diodes, characterized in that the refractive index of the dielectric layer being is in the range from 1.6 to 1.8, and the maximum thickness of the dielectric layer is in the range from 250 nm to 50 μm, so that the dielectric layer fills completely the space between the semiconductor elements and covers each semiconductor element. a semiconductor substrate having a surface; light-emitting diodes supported by the surface comprising wire-shaped, conical, or tapered semiconductor elements, each semiconductor element being mainly made of a III-V compound; and an at least partially transparent dielectric layer covering the light-emitting diodes, characterized in that the refractive index of the dielectric layer being is in the range from 1.6 to 1.8, and the maximum thickness of the dielectric layer is in the range from 250 nm to 50 μm, so that the dielectric layer fills completely the space between the semiconductor elements and covers each semiconductor element.
A system (10; 110) for reproducing sound, comprising: a sound enclosure (12; 112) defining a horn passageway defining input openings for at least two acoustic drivers and a common sound output opening; an acoustic driver (14; 114, 116) coupled to each input opening; and the common sound output opening adapted to output a combined sound output to a horn mouth region; wherein the sound enclosure (12; 112) is provided with a plurality of partitions that define plural independent acoustic paths (126, 128, 130, 132, 134, 136, 138, 156, 158, 160, 162, 164, 166, 168) from each acoustic driver (14; 114, 116); wherein the sound enclosure (12; 112) further defines a sound output chamber (22; 154) for merging the independent acoustic paths (126, 128, 130, 132, 134, 136, 138, 156, 158, 160, 162, 164, 166, 168) to form the combined sound output; wherein consecutive acoustic paths of the plural independent acoustic paths (126, 128, 130, 132, 134, 136, 138, 156, 158, 160, 162, 164, 166, 168) associated with each acoustic driver (14; 114, 116) have unequal, progressively longer length to the sound output chamber (22; 154) and upon merging of the independent acoustic paths, a single curved wavefront is provided. a sound enclosure (12; 112) defining a horn passageway defining input openings for at least two acoustic drivers and a common sound output opening; an acoustic driver (14; 114, 116) coupled to each input opening; and the common sound output opening adapted to output a combined sound output to a horn mouth region; wherein the sound enclosure (12; 112) is provided with a plurality of partitions that define plural independent acoustic paths (126, 128, 130, 132, 134, 136, 138, 156, 158, 160, 162, 164, 166, 168) from each acoustic driver (14; 114, 116); wherein the sound enclosure (12; 112) further defines a sound output chamber (22; 154) for merging the independent acoustic paths (126, 128, 130, 132, 134, 136, 138, 156, 158, 160, 162, 164, 166, 168) to form the combined sound output; wherein consecutive acoustic paths of the plural independent acoustic paths (126, 128, 130, 132, 134, 136, 138, 156, 158, 160, 162, 164, 166, 168) associated with each acoustic driver (14; 114, 116) have unequal, progressively longer length to the sound output chamber (22; 154) and upon merging of the independent acoustic paths, a single curved wavefront is provided.
A method of controlling a display device accessing a broadcast receiver (100, 200, 400, 570) via a web browser, the method comprising: accessing a web address corresponding to the broadcast receiver (100, 200, 400, 570) via the web browser; receiving internet protocol, IP, address information mapped to the web address from a domain name server, DNS; accessing the broadcast receiver using the received IP address information; receiving data of a content displayed on the broadcast receiver (100, 200, 400, 570) from the broadcast receiver (100, 200, 400, 570); and displaying the content on a screen of the display device, wherein the method further comprises: determining a power mode of the accessed broadcast receiver (100, 200, 400, 570); and if the determined power mode of the accessed broadcast receiver (100, 200, 400, 570) is a sleep mode, transmitting a signal to change the sleep mode into an active mode for transmitting the data of the content displayed on the broadcast receiver (100, 200, 400, 570) for changing the power mode to the broadcast receiver (100, 200, 400, 570). accessing a web address corresponding to the broadcast receiver (100, 200, 400, 570) via the web browser; receiving internet protocol, IP, address information mapped to the web address from a domain name server, DNS; accessing the broadcast receiver using the received IP address information; receiving data of a content displayed on the broadcast receiver (100, 200, 400, 570) from the broadcast receiver (100, 200, 400, 570); and displaying the content on a screen of the display device, wherein the method further comprises: determining a power mode of the accessed broadcast receiver (100, 200, 400, 570); and if the determined power mode of the accessed broadcast receiver (100, 200, 400, 570) is a sleep mode, transmitting a signal to change the sleep mode into an active mode for transmitting the data of the content displayed on the broadcast receiver (100, 200, 400, 570) for changing the power mode to the broadcast receiver (100, 200, 400, 570). determining a power mode of the accessed broadcast receiver (100, 200, 400, 570); and if the determined power mode of the accessed broadcast receiver (100, 200, 400, 570) is a sleep mode, transmitting a signal to change the sleep mode into an active mode for transmitting the data of the content displayed on the broadcast receiver (100, 200, 400, 570) for changing the power mode to the broadcast receiver (100, 200, 400, 570).
A flame retardant resin composition comprising: 100 parts by weight of a resin component (component A) which contains at least 50 wt% of a polylactic acid resin (component A-1); and 3 to 50 parts by weight of an organic phosphorus compound (component B) represented by the following formula (1-a). 100 parts by weight of a resin component (component A) which contains at least 50 wt% of a polylactic acid resin (component A-1); and 3 to 50 parts by weight of an organic phosphorus compound (component B) represented by the following formula (1-a).
A cryogenic physical therapy cabin, comprising: a cabin body; a cabin door, which is hinged with the cabin body to form at least one sauna room; a refrigeration module, which comprises an evaporator arranged on an inner wall of the cabin body; an air outlet module, which is arranged on the cabin body and comprises fan blades and a fan electrically connected to the fan blades, wherein the fan is configured to drive the fan blades to rotate to generate a circulating airflow inside the sauna room; and a main control module, which comprises a controller electrically connected to the fan and the refrigeration module, wherein the controller is configured to receive a user adjustment instruction and adjust operation states of the air outlet module and the refrigeration module according to the user adjustment instruction, characterized in that the cabin door further comprises a glass window structure, which comprises at least two pieces of glass (206001, 206002) fixedly connected and arranged in parallel with each other, wherein there is an air gap between adjacent two pieces of glass (206001, 206002), and an electric heater is arranged on a first glass in the at least two pieces of glass (206001, 206002) close to the sauna room; and the controller is electrically connected to the electric heater, and is configured to control an operation state of the electric heater. a cabin body; a cabin door, which is hinged with the cabin body to form at least one sauna room; a refrigeration module, which comprises an evaporator arranged on an inner wall of the cabin body; an air outlet module, which is arranged on the cabin body and comprises fan blades and a fan electrically connected to the fan blades, wherein the fan is configured to drive the fan blades to rotate to generate a circulating airflow inside the sauna room; and a main control module, which comprises a controller electrically connected to the fan and the refrigeration module, wherein the controller is configured to receive a user adjustment instruction and adjust operation states of the air outlet module and the refrigeration module according to the user adjustment instruction, characterized in that the cabin door further comprises a glass window structure, which comprises at least two pieces of glass (206001, 206002) fixedly connected and arranged in parallel with each other, wherein there is an air gap between adjacent two pieces of glass (206001, 206002), and an electric heater is arranged on a first glass in the at least two pieces of glass (206001, 206002) close to the sauna room; and the controller is electrically connected to the electric heater, and is configured to control an operation state of the electric heater.
A light emitting device comprising: a base member including a resin; a plurality of wiring portions (12, 13); a groove portion defined between adjacent wiring portions (12, 13); and at least one light emitting element disposed straddling at least a part of the groove portion, characterized by: the plurality of wiring portions (12, 13) adhered to the base member with an adhesive agent configured to adhere the wiring portions (12,13) and the base member; the adhesive agent including a light-shielding member, disposed between the wiring portions (12, 13) and the base member, and extended to cover the groove portion which is a region where the wiring portions (12, 13) are not arranged; and the light-shielding member configured to shield the base member from at least a specific wavelength of light emitted from the light emitting element. a base member including a resin; a plurality of wiring portions (12, 13); a groove portion defined between adjacent wiring portions (12, 13); and at least one light emitting element disposed straddling at least a part of the groove portion, characterized by: the plurality of wiring portions (12, 13) adhered to the base member with an adhesive agent configured to adhere the wiring portions (12,13) and the base member; the adhesive agent including a light-shielding member, disposed between the wiring portions (12, 13) and the base member, and extended to cover the groove portion which is a region where the wiring portions (12, 13) are not arranged; and the light-shielding member configured to shield the base member from at least a specific wavelength of light emitted from the light emitting element. the plurality of wiring portions (12, 13) adhered to the base member with an adhesive agent configured to adhere the wiring portions (12,13) and the base member; the adhesive agent including a light-shielding member, disposed between the wiring portions (12, 13) and the base member, and extended to cover the groove portion which is a region where the wiring portions (12, 13) are not arranged; and the light-shielding member configured to shield the base member from at least a specific wavelength of light emitted from the light emitting element.
An electromechanical rotary lock cylinder having a stator and a rotor mounted therein, having a blocking element (25, 64) which is mounted in a bottom part of the stator and, in a locked position, engages in the rotor and, in an open position, releases the rotor, and having an actuator (17, 78) which can be controlled in dependence on information arranged on a key and which, in a blocking position, fixes the blocking element (25, 64) and, in another position, releases the same, characterized in that the blocking element (25, 64) is mounted in a displaceable manner in a bore of a guide element or housing and in that in said guide element or housing a latch element (33, 63) is provided which is mounted in the guide element or housing in order to displace the released blocking element (25, 64) from the locked position into the open position, which engages through a through-passage of the guide element or housing in the key channel of the rotor and can be moved by the key in order to displace the blocking element (25, 64).
A penetration system for a penetrating pipe entering a duct wall at a pipe stub, comprising: a thermal sleeve comprising a first end configured to be positioned adjacent the duct wall and a second opposite end; and a bellows positioned next to the opposite second end of the thermal sleeve and configured to be positioned about the penetrating pipe, wherein the system further comprises a pipe stub configured to protrude from the duct wall and to surround the penetrating pipe, the thermal sleeve surrounds the pipe stub and the thermal sleeve comprises a truncated conical closeout. a thermal sleeve comprising a first end configured to be positioned adjacent the duct wall and a second opposite end; and a bellows positioned next to the opposite second end of the thermal sleeve and configured to be positioned about the penetrating pipe, wherein the system further comprises a pipe stub configured to protrude from the duct wall and to surround the penetrating pipe, the thermal sleeve surrounds the pipe stub and the thermal sleeve comprises a truncated conical closeout.
A screen module, comprising a display panel, a support layer, and a display driver chip, wherein the display panel is bent to form a first panel layer and a second panel layer spaced apart from one another; the first panel layer and the second panel layer are connected by a bent region; the support layer is located between the first panel layer and the second panel layer; the display driver chip is located on a side of the second panel layer away from the first panel layer; a thickness of the support layer close to the bent region is greater than a thickness of a first region of the support layer; and a projection of the first region of the support layer on the first panel layer overlaps with a projection of the display driver chip on the first panel layer; characterised in that the support layer comprises a first support plate and a second support plate, wherein the first support plate and the second support plate are stacked, and the second support plate is located on a side close to the bent region; wherein the second support plate is located on a side of the first support plate away from the first panel layer. the support layer is located between the first panel layer and the second panel layer; the display driver chip is located on a side of the second panel layer away from the first panel layer; a thickness of the support layer close to the bent region is greater than a thickness of a first region of the support layer; and a projection of the first region of the support layer on the first panel layer overlaps with a projection of the display driver chip on the first panel layer; characterised in that the support layer comprises a first support plate and a second support plate, wherein the first support plate and the second support plate are stacked, and the second support plate is located on a side close to the bent region; wherein the second support plate is located on a side of the first support plate away from the first panel layer.
A method comprising: (a) introducing a sample solution comprising a target nucleic acid polymer into a microfluidic device, wherein the device comprises a sample region having: (i) a flow channel in fluid communication with one fluid inlet and one fluid outlet; and (ii) a plurality of valves that, when closed, partition said flow channel into isolated reaction sites, wherein each valve is formed from an elastomeric membrane that separates a control channel from said flow channel, and wherein the elastomeric membrane is disposed to be deflected into or retracted out from the flow channel in response to an actuation force to the control channel, thereby forming the valve, and wherein said control channel is part of a network of control channels and said actuation force is due to pressure in the network of control channels from an inlet via; (b) closing said valves, thereby partitioning the flow channel into isolated reaction sites containing portions of said sample solution; (c) exposing the reaction sites to conditions under which the nucleic acid polymer is amplified to produce an amplification product; and (d) opening said valves and displacing sample solution out of the flow channel. (a) introducing a sample solution comprising a target nucleic acid polymer into a microfluidic device, wherein the device comprises a sample region having: (i) a flow channel in fluid communication with one fluid inlet and one fluid outlet; and (ii) a plurality of valves that, when closed, partition said flow channel into isolated reaction sites, wherein each valve is formed from an elastomeric membrane that separates a control channel from said flow channel, and wherein the elastomeric membrane is disposed to be deflected into or retracted out from the flow channel in response to an actuation force to the control channel, thereby forming the valve, and wherein said control channel is part of a network of control channels and said actuation force is due to pressure in the network of control channels from an inlet via; (i) a flow channel in fluid communication with one fluid inlet and one fluid outlet; and (ii) a plurality of valves that, when closed, partition said flow channel into isolated reaction sites, wherein each valve is formed from an elastomeric membrane that separates a control channel from said flow channel, and wherein the elastomeric membrane is disposed to be deflected into or retracted out from the flow channel in response to an actuation force to the control channel, thereby forming the valve, and wherein said control channel is part of a network of control channels and said actuation force is due to pressure in the network of control channels from an inlet via; (b) closing said valves, thereby partitioning the flow channel into isolated reaction sites containing portions of said sample solution; (c) exposing the reaction sites to conditions under which the nucleic acid polymer is amplified to produce an amplification product; and (d) opening said valves and displacing sample solution out of the flow channel.
A system of using compressed air as a force source, wherein the system comprises compressed air jet engines, which use high/ultra-high pressure compressed air as a jet working medium, a compressed air production/supply device and a controller; the compressed air jet engines are suitable for being equipped on a moving carrier, and comprise an air tank and air engines; the air tank being a compressed air storage container, including a plurality of air storage pipes to store and supply the compressed air needed for the air engines; the air engines comprising a main air engine and a plurality of auxiliary air engines; the main air engine being arranged to use the compressed air input from the air storage pipes as the jet working medium for applying a thrust to the moving carrier moving forward; the plurality of auxiliary air engines being arranged respectively around the moving carrier including a first auxiliary air engine, a second auxiliary air engine, a third auxiliary air engine, a fourth auxiliary air engine and a fifth auxiliary air engine, to use the compressed air input from the air storage pipes as the jet working medium, in coordination with the main air engine for pushing the moving carrier moving toward a target direction; the compressed air production/supply device comprising a high/ultra-high pressure air compressor and a large boiler-type pressure vessel; the working pressure of the high/ultra-high pressure air compressor being close to, equal to or more 100MPa, for pressurizing and inflating air into the large boiler-type pressure vessel under the control of the controller; the large boiler-type pressure vessel being used to produce and store the compressed air for pressurizing and inflating the compressed air into plurality of the air storage pipes; the controller being used to control the opening and closing of the main air engine, the first auxiliary air engine, the second auxiliary air engine, the third auxiliary air engine, the fourth auxiliary air engines and the fifth auxiliary air engine for pushing the moving carrier moving toward the target direction.
An anode, wherein an anode substrate is composed of a valve metal, and an anode catalyst layer comprising at least one oxide, nitride or carbide of iridium, and at least one oxide, nitride or carbide of at least one metal selected from the group consisting of elements belonging to groups 4, 5 and 13 of the periodic table is formed on a surface of the anode substrate, wherein the at least one metal selected from the group consisting of elements belonging to groups 4, 5 and 13 of the periodic table is tantalum, and the at least one metal selected from the group consisting of elements belonging to groups 4, 5 and 13 of the periodic table also contains zirconium.