mhurhangee/ep-ind-claims huggingface dataset:
A gasification system for the partial oxidation of a carbonaceous feedstock to at least provide a synthesis gas, the system comprising: a reactor chamber for receiving and partially oxidizing the carbonaceous feedstock; a quench chamber below the reactor chamber for holding a bath of liquid coolant; and an intermediate section connecting the reactor chamber to the quench chamber, the intermediate section comprising: a reactor chamber floor provided with a reactor outlet opening through which the reactor chamber communicates with the quench chamber to conduct the synthesis gas from the reactor chamber into the bath of the quench chamber; at least one layer of refractory bricks arranged on and supported by the reactor chamber floor, the refractory bricks enclosing the reactor outlet opening; the system further comprising a dip tube extending from the reactor outlet opening to the bath of the quench chamber, the dip tube having a widened top section, wherein the widened top section comprises a curved section, the widened top section of the dip tube is provided with a quench ring for providing liquid coolant to the inner surface of the dip tube, and the quench ring is arranged at the upper end of the widened top section. a reactor chamber floor provided with a reactor outlet opening through which the reactor chamber communicates with the quench chamber to conduct the synthesis gas from the reactor chamber into the bath of the quench chamber; at least one layer of refractory bricks arranged on and supported by the reactor chamber floor, the refractory bricks enclosing the reactor outlet opening; the system further comprising a dip tube extending from the reactor outlet opening to the bath of the quench chamber, the dip tube having a widened top section, wherein the widened top section comprises a curved section, the widened top section of the dip tube is provided with a quench ring for providing liquid coolant to the inner surface of the dip tube, and the quench ring is arranged at the upper end of the widened top section.
A hot melt liquid dispensing system, comprising: a pump configured to pump hot melt liquid to an applicator; an air flow path configured to supply pressurized air to the pump; an electronic pressure sensor associated with the air flow path; characterized by the hot melt liquid dispensing system further comprises: a transducer associated with the air flow path; and a controller configured to: receive an electronic signal from the electronic pressure sensor indicative of an air pressure in the air flow path, and cause adjustment to the air pressure in the air flow path based on the electronic signal from the electronic pressure sensor, wherein the controller is further configured to cause adjustment to the air pressure in the air flow path by transmitting an electronic signal to the transducer. a pump configured to pump hot melt liquid to an applicator; an air flow path configured to supply pressurized air to the pump; an electronic pressure sensor associated with the air flow path; characterized by the hot melt liquid dispensing system further comprises: a transducer associated with the air flow path; and a controller configured to: receive an electronic signal from the electronic pressure sensor indicative of an air pressure in the air flow path, and cause adjustment to the air pressure in the air flow path based on the electronic signal from the electronic pressure sensor, wherein the controller is further configured to cause adjustment to the air pressure in the air flow path by transmitting an electronic signal to the transducer. a transducer associated with the air flow path; and a controller configured to: receive an electronic signal from the electronic pressure sensor indicative of an air pressure in the air flow path, and cause adjustment to the air pressure in the air flow path based on the electronic signal from the electronic pressure sensor, receive an electronic signal from the electronic pressure sensor indicative of an air pressure in the air flow path, and cause adjustment to the air pressure in the air flow path based on the electronic signal from the electronic pressure sensor, wherein the controller is further configured to cause adjustment to the air pressure in the air flow path by transmitting an electronic signal to the transducer.
A method for printing a three-dimensional object, the method comprising: printing a structural layer onto a three-dimensional object, wherein the structural layer comprises a first region and a second region, wherein the first region comprises a first structural thickness, wherein the second region comprises a second structural thickness, and wherein the first structural thickness and the second structural thickness are different; printing a first color layer directly onto the first region of the structural layer, wherein the first color layer comprises a first color and a first color thickness, and wherein the first color thickness and the first structural thickness in combination form a target thickness; and printing a second color layer directly onto the second region of the structural layer, wherein the second color layer comprises a second color and a second color thickness, and wherein the second color thickness and the second structural thickness in combination form the target thickness, wherein the structural layer is white; or wherein the structural layer is black. printing a structural layer onto a three-dimensional object, wherein the structural layer comprises a first region and a second region, wherein the first region comprises a first structural thickness, wherein the second region comprises a second structural thickness, and wherein the first structural thickness and the second structural thickness are different; printing a first color layer directly onto the first region of the structural layer, wherein the first color layer comprises a first color and a first color thickness, and wherein the first color thickness and the first structural thickness in combination form a target thickness; and printing a second color layer directly onto the second region of the structural layer, wherein the second color layer comprises a second color and a second color thickness, and wherein the second color thickness and the second structural thickness in combination form the target thickness, wherein the structural layer is white; or wherein the structural layer is black.
A synthetic hemostatic fabric comprising at least one hemostatic agent in a single, nonwoven layer of a first absorbable fabric that comprises polyglycolide/polylactide copolymer and a second absorbable fabric that comprises polydioxanone, wherein both fabrics are in staple form and said synthetic hemostatic fabric is free of any cellulosic or oxidized polysaccharide material.
A machine for retreading tires, comprising: an expandable rim (10; 104; 200) including a plurality of shoes (202; 300) arranged symmetrically in a circumferential direction, each of the plurality of shoes (202; 300) including a base portion (20; 302) and a rim portion (40; 304), the base portion (20; 302) positioned closer to the axis of rotation, the rim portion (40; 304) including a rim segment (42; 306) and flange segments (44, 44a, 44b; 308) on either side of the rim segment (42; 306), the rim segment (42; 306) having an original rim width measured along the rotation axis of the rim (10; 104; 200) between inward facing surfaces (47a, 47b) of the flange segments (44, 44a, 44b; 308); a belt (70; 216; 370) disposed along the rim segment (42; 306) of the plurality of shoes (202; 300); and characterised by further comprising a band (60a, 60b; 160; 260; 412) positioned around a circumference of the rim segment (42; 306), the band (60a, 60b; 160; 260; 412) positioned contiguous with an inward facing surface (47a, 47b) of at least one of the flange segments (44, 44a, 44b; 308); wherein an adjusted rim width (W'), measured along the rotation axis between at least one inward facing surface of the band (60a, 60b; 160; 260; 412) and an inward facing surface (47a, 47b) of the flange segment (44, 44a, 44b; 308) at another side of the rim portion (40; 304), is different than the original rim width. an expandable rim (10; 104; 200) including a plurality of shoes (202; 300) arranged symmetrically in a circumferential direction, each of the plurality of shoes (202; 300) including a base portion (20; 302) and a rim portion (40; 304), the base portion (20; 302) positioned closer to the axis of rotation, the rim portion (40; 304) including a rim segment (42; 306) and flange segments (44, 44a, 44b; 308) on either side of the rim segment (42; 306), the rim segment (42; 306) having an original rim width measured along the rotation axis of the rim (10; 104; 200) between inward facing surfaces (47a, 47b) of the flange segments (44, 44a, 44b; 308); a belt (70; 216; 370) disposed along the rim segment (42; 306) of the plurality of shoes (202; 300); and characterised by further comprising a band (60a, 60b; 160; 260; 412) positioned around a circumference of the rim segment (42; 306), the band (60a, 60b; 160; 260; 412) positioned contiguous with an inward facing surface (47a, 47b) of at least one of the flange segments (44, 44a, 44b; 308); wherein an adjusted rim width (W'), measured along the rotation axis between at least one inward facing surface of the band (60a, 60b; 160; 260; 412) and an inward facing surface (47a, 47b) of the flange segment (44, 44a, 44b; 308) at another side of the rim portion (40; 304), is different than the original rim width.
An air conditioning indoor unit comprising: a casing having an intake port (25, 26) and a blow-out port, wherein the air conditioning indoor unit is of a wall-mounted type and is configured to be mounted on a wall; a heat exchanger configured to exchange heat with air sucked through the intake port (25, 26) to draw heat from the air, during a cooling operation; a fan configured to send the air exchanged heat at the heat exchanger out of the blow-out port; an airflow direction switching mechanism configured to switch an airflow direction of blow-out air from the blow-out port at least between a first direction being a horizontal or substantially horizontal direction and a second direction being a vertically downward or substantially vertically downward direction; and a switching mechanism control unit configured to control operation of the airflow direction switching mechanism to switch the airflow direction of the blow-out air, characterized in that the switching mechanism control unit is configured to control the operation of the airflow direction switching mechanism so that, during the cooling operation, the blow-out air temporarily blows out in the second direction, to generate an airflow along the wall on which the air conditioning indoor unit is mounted, when temperature unevenness is detected or presumed in an air conditioning target space while the blow-out air blowing out in the first direction. a casing having an intake port (25, 26) and a blow-out port, wherein the air conditioning indoor unit is of a wall-mounted type and is configured to be mounted on a wall; a heat exchanger configured to exchange heat with air sucked through the intake port (25, 26) to draw heat from the air, during a cooling operation; a fan configured to send the air exchanged heat at the heat exchanger out of the blow-out port; an airflow direction switching mechanism configured to switch an airflow direction of blow-out air from the blow-out port at least between a first direction being a horizontal or substantially horizontal direction and a second direction being a vertically downward or substantially vertically downward direction; and a switching mechanism control unit configured to control operation of the airflow direction switching mechanism to switch the airflow direction of the blow-out air, characterized in that the switching mechanism control unit is configured to control the operation of the airflow direction switching mechanism so that, during the cooling operation, the blow-out air temporarily blows out in the second direction, to generate an airflow along the wall on which the air conditioning indoor unit is mounted, when temperature unevenness is detected or presumed in an air conditioning target space while the blow-out air blowing out in the first direction.
A rack system for displacing a ladder between a loading/unloading position on a side of a vehicle and a stored position on a rooftop of the vehicle, the ladder rack system comprising: - a handle lever by which a user applies an input angular movement; - a linking member for transmitting an output angular movement; and - a sliding arm assembly to receive the output angular movement from the linking member, thereby being pivoted between the loading/unloading position in which the sliding arm assembly extends on the side of the vehicle and the stored position in which the sliding arm assembly extends substantially parallel to the rooftop, characterized in that it further comprises: - a gear assembly connected to the handle lever and comprising gears to multiply the input angular movement into the output angular movement greater than the input angular movement; and in that: - the linking member is pivotably connected to the gear assembly and hingedly connected to the sliding arm and undergoes the output angular movement. - a handle lever by which a user applies an input angular movement; - a linking member for transmitting an output angular movement; and - a sliding arm assembly to receive the output angular movement from the linking member, thereby being pivoted between the loading/unloading position in which the sliding arm assembly extends on the side of the vehicle and the stored position in which the sliding arm assembly extends substantially parallel to the rooftop, - a gear assembly connected to the handle lever and comprising gears to multiply the input angular movement into the output angular movement greater than the input angular movement; - the linking member is pivotably connected to the gear assembly and hingedly connected to the sliding arm and undergoes the output angular movement.
A sulfur-doped silicon negative electrode material, wherein, the sulfur-doped silicon negative electrode material has a structure, in which silicon and sulfur seeds are agglomerated with each other in a mixed state, wherein the sulfur-doped silicon negative electrode material has an internal pore channel having an average width of 500 nm to 3 μ m and has an average external diameter of 1 μ m to 5 μ m, wherein the internal pore channel and the average external diameter are measured with the methods disclosed in the description, and wherein the sulfur-doped silicon negative electrode material is a material doped with sulfur in an amount of 0.1 to 5 at%. wherein, the sulfur-doped silicon negative electrode material has a structure, in which silicon and sulfur seeds are agglomerated with each other in a mixed state, wherein the sulfur-doped silicon negative electrode material has an internal pore channel having an average width of 500 nm to 3 μ m and has an average external diameter of 1 μ m to 5 μ m, wherein the internal pore channel and the average external diameter are measured with the methods disclosed in the description, and wherein the sulfur-doped silicon negative electrode material is a material doped with sulfur in an amount of 0.1 to 5 at%.
A device for providing a bone cement paste consisting of two starting components, comprising a hollow cylindrical cartridge having an interior, a bone cement powder as the first starting component being stored in a front part of the interior and a container containing a monomer liquid as the second starting component being stored in a rear part of the interior, a dispensing plunger which is axially movable in the interior being arranged between the bone cement powder and the container and a delivery plunger which is axially movable in the interior being arranged on the side of the container opposite the dispensing plunger, the rear part and the front part of the interior being fluidically connected to one another via a conduit means, and, by advancing the delivery plunger in the direction of the dispensing plunger, the container being openable by disintegration into a plurality of container parts, so that the monomer liquid can flow into the rear part of the interior, a volume-stable displacement means being arranged in the rear part of the interior, which displacement means is designed, by progressively advancing the delivery plunger in the direction of the dispensing plunger, to surround the container parts with displacement of the monomer liquid between the container parts, in order to convey the monomer liquid from the rear part into the front part of the interior via the conduit means, characterized in that the displacement means comprises a hard fat and/or a wax having a melting point of at least 40°C. a hollow cylindrical cartridge having an interior, a bone cement powder as the first starting component being stored in a front part of the interior and a container containing a monomer liquid as the second starting component being stored in a rear part of the interior, a dispensing plunger which is axially movable in the interior being arranged between the bone cement powder and the container and a delivery plunger which is axially movable in the interior being arranged on the side of the container opposite the dispensing plunger, the rear part and the front part of the interior being fluidically connected to one another via a conduit means, and, by advancing the delivery plunger in the direction of the dispensing plunger, the container being openable by disintegration into a plurality of container parts, so that the monomer liquid can flow into the rear part of the interior, a volume-stable displacement means being arranged in the rear part of the interior, which displacement means is designed, by progressively advancing the delivery plunger in the direction of the dispensing plunger, to surround the container parts with displacement of the monomer liquid between the container parts, in order to convey the monomer liquid from the rear part into the front part of the interior via the conduit means, characterized in that the displacement means comprises a hard fat and/or a wax having a melting point of at least 40°C.
A pipe layer attachment for an excavator, comprising: an excavator undercarriage; an excavator upper structure rotatable relative to the undercarriage; an excavator boom pivotably mounted to the upper structure so that a distal end of the excavator boom is opposite the upper structure, the excavator boom including an excavator arm attachment p in connection adjacent to the distal end and an excavator arm cylinder pin connection along the excavator boom; an excavator boom cylinder used to rotate the excavator boom relative to the upper structure; a pipe layer boom mounted onto the excavator boom as a cantilever with the pipe layer boom provided with an extension extending beyond the distal end of the excavator boom, the pipe layer boom connected to the excavator arm attachment pin connection of the excavator boom and the excavator arm cylinder pin connection of the excavator boom; the pipe layer boom fixed to the excavator boom, whereby the pipe layer boom is not pivotable with respect to the excavator boom and so that pivoting the excavator boom relative to the upper structure moves the pipe layer boom relative to the upper structure; and a winch configured to wind and unwind a cable having a hook attached thereto. an excavator undercarriage; an excavator upper structure rotatable relative to the undercarriage; an excavator boom pivotably mounted to the upper structure so that a distal end of the excavator boom is opposite the upper structure, the excavator boom including an excavator arm attachment p in connection adjacent to the distal end and an excavator arm cylinder pin connection along the excavator boom; an excavator boom cylinder used to rotate the excavator boom relative to the upper structure; a pipe layer boom mounted onto the excavator boom as a cantilever with the pipe layer boom provided with an extension extending beyond the distal end of the excavator boom, the pipe layer boom connected to the excavator arm attachment pin connection of the excavator boom and the excavator arm cylinder pin connection of the excavator boom; the pipe layer boom fixed to the excavator boom, whereby the pipe layer boom is not pivotable with respect to the excavator boom and so that pivoting the excavator boom relative to the upper structure moves the pipe layer boom relative to the upper structure; and a winch configured to wind and unwind a cable having a hook attached thereto.
A method comprising: receiving, from a client computing device, an indication of a target drop-off spot for an object within a first virtual model of a first region of a delivery destination, the first virtual model representing first physical features of the first region of the delivery destination, wherein the first virtual model is a three dimensional model; receiving, from one or more sensors on a delivery vehicle, sensor data indicative of a second region of the delivery destination; determining, based on the sensor data, a second virtual model of the second region of the delivery destination, the second virtual model representing second physical features of the second region of the delivery destination, wherein the second virtual model is a three dimensional model; determining a mapping between one or more of the first physical features and one or more of the second physical features to determine an overlapping region between the first virtual model and the second virtual model; based on the overlapping region, determining a position of the target drop-off spot within the second virtual model; and based on the position of the target drop-off spot within the second virtual model, providing instructions to navigate the delivery vehicle to the target drop-off spot to place the object at the target drop-off spot. receiving, from a client computing device, an indication of a target drop-off spot for an object within a first virtual model of a first region of a delivery destination, the first virtual model representing first physical features of the first region of the delivery destination, wherein the first virtual model is a three dimensional model; receiving, from one or more sensors on a delivery vehicle, sensor data indicative of a second region of the delivery destination; determining, based on the sensor data, a second virtual model of the second region of the delivery destination, the second virtual model representing second physical features of the second region of the delivery destination, wherein the second virtual model is a three dimensional model; determining a mapping between one or more of the first physical features and one or more of the second physical features to determine an overlapping region between the first virtual model and the second virtual model; based on the overlapping region, determining a position of the target drop-off spot within the second virtual model; and based on the position of the target drop-off spot within the second virtual model, providing instructions to navigate the delivery vehicle to the target drop-off spot to place the object at the target drop-off spot.