mhurhangee/ep-ind-claims huggingface dataset:
An ink container adapted to connect with a recording apparatus, the ink container comprising: an ink composition; an ink chamber containing the ink composition, the ink chamber being partitioned by a wall, being refillable with the ink composition via an ink pouring port, and communicating with external air; and the ink pouring port adapted to allow the ink composition to be poured into the ink chamber; the ink composition comprising: a pigment; a resin; an organic solvent; and water as a main solvent, characterized in that: the ink composition has a static contact angle of 10° or more to a member constituting an inner side of the wall, wherein the static contact angle is measured according to a sessile drop method of JIS R 3257 (Test Method for Surface Wettability of Glass Substrate) except that a glass substrate is changed to a plate-like sample of the member and pure water is changed to the ink composition, and wherein the member comprises one or more of a fluorine compound, a silicone resin, polypropylene, polystyrene, polyethylene, polyester, polyvinyl chloride, a phenol resin, polyvinyl acetate, and a poly(meth)acrylic ester. an ink composition; an ink chamber containing the ink composition, the ink chamber being partitioned by a wall, being refillable with the ink composition via an ink pouring port, and communicating with external air; and the ink pouring port adapted to allow the ink composition to be poured into the ink chamber; the ink composition comprising: a pigment; a resin; an organic solvent; and a pigment; a resin; an organic solvent; and water as a main solvent, characterized in that: the ink composition has a static contact angle of 10° or more to a member constituting an inner side of the wall, wherein the static contact angle is measured according to a sessile drop method of JIS R 3257 (Test Method for Surface Wettability of Glass Substrate) except that a glass substrate is changed to a plate-like sample of the member and pure water is changed to the ink composition, and wherein the member comprises one or more of a fluorine compound, a silicone resin, polypropylene, polystyrene, polyethylene, polyester, polyvinyl chloride, a phenol resin, polyvinyl acetate, and a poly(meth)acrylic ester. the ink composition has a static contact angle of 10° or more to a member constituting an inner side of the wall, wherein the static contact angle is measured according to a sessile drop method of JIS R 3257 (Test Method for Surface Wettability of Glass Substrate) except that a glass substrate is changed to a plate-like sample of the member and pure water is changed to the ink composition, and wherein the member comprises one or more of a fluorine compound, a silicone resin, polypropylene, polystyrene, polyethylene, polyester, polyvinyl chloride, a phenol resin, polyvinyl acetate, and a poly(meth)acrylic ester.
A fluid processing system comprising: a cassette comprising a molded body having a plurality of valve stations and at least one pressure sensing station (32a, 32b), wherein the pressure sensing station (32a, 32b) comprises a cap having an opening extending beyond the molded body; a loading area configured to receive and hold the cassette, and configured to position the cassette onto a valve and sensor assembly, wherein the valve and sensor assembly comprises valve actuators and at least one pressure sensing transducer (58a, 58b) comprising a sensor post, the valve and sensor assembly configured to align respectively with the plurality of valve stations and the pressure sensing station (32a, 32b); wherein the opening of the cap is formed by an inner wall having a first diameter, an outer wall having a second diameter, and a contact surface connecting the inner and outer wall (44a, 44b), wherein the contact surface includes a varying diameter that decreases from the second diameter to the first diameter; wherein the sensor post comprises a ring disposed around a cylindrical body and positioned to engage with the contact surface of the cap to form a seal; and wherein the contact surface is disposed at an acute angle (α) relative to a vertical axis (Zc) of the seal, the acute angle (α) having a value in the range of 30 to 60 degrees. a cassette comprising a molded body having a plurality of valve stations and at least one pressure sensing station (32a, 32b), wherein the pressure sensing station (32a, 32b) comprises a cap having an opening extending beyond the molded body; a loading area configured to receive and hold the cassette, and configured to position the cassette onto a valve and sensor assembly, wherein the valve and sensor assembly comprises valve actuators and at least one pressure sensing transducer (58a, 58b) comprising a sensor post, the valve and sensor assembly configured to align respectively with the plurality of valve stations and the pressure sensing station (32a, 32b); wherein the opening of the cap is formed by an inner wall having a first diameter, an outer wall having a second diameter, and a contact surface connecting the inner and outer wall (44a, 44b), wherein the contact surface includes a varying diameter that decreases from the second diameter to the first diameter; wherein the sensor post comprises a ring disposed around a cylindrical body and positioned to engage with the contact surface of the cap to form a seal; and wherein the contact surface is disposed at an acute angle (α) relative to a vertical axis (Zc) of the seal, the acute angle (α) having a value in the range of 30 to 60 degrees.
A cooking appliance having a cooking chamber delimited by cooking chamber walls (12, 16), comprising a support system for arranging a food carrier in the cooking chamber in a slide-in level of a plurality of slide-in levels of the support system for the food carrier, and a controller, wherein the controller is designed and configured in order to actuate a plurality of illuminants of the cooking appliance, characterized in that the illuminants are arranged in each case above and below each of the slide-in levels and can be actuated in a marking mode of the cooking appliance by means of the controller in such a way that, as a function of a preferred slide-in level previously selected by means of the controller from the plurality of slide-in levels for the food carrier, only illuminants between the preferred slide-in level and the slide-in level or cooking chamber wall directly following this slide-in level above and below the preferred slide-in level can be switched on by means of the controller in order to mark the preferred slide-in level.
An unmanned aerial vehicle, comprising: one or more propulsion units (120, 210) configured to generate lift for the UAV; a central body (102, 202) comprising a first body portion and a second body portion, wherein the first body portion is configured to move translationally relative to the second body portion to transform the central body (102, 202) between a first configuration and a second configuration; and a plurality of arms (110, 208) extending away from the central body (102, 202), each of the plurality of arms (110, 208) being configured to couple to one or more of the propulsion units (120, 210), wherein the plurality of arms (110, 208) comprises a first plurality of arms (110, 208) and a second plurality of arms (110, 208), wherein the first plurality of arms (110, 208) extends from the first body portion and the second plurality of arms (110, 208) extends from the second body portion wherein in the first configuration, the first body portion is positioned above the second body portion of the unmanned aerial vehicle such that all portions of the first body portion are being above all portions of the second body portion. one or more propulsion units (120, 210) configured to generate lift for the UAV; a central body (102, 202) comprising a first body portion and a second body portion, wherein the first body portion is configured to move translationally relative to the second body portion to transform the central body (102, 202) between a first configuration and a second configuration; and a plurality of arms (110, 208) extending away from the central body (102, 202), each of the plurality of arms (110, 208) being configured to couple to one or more of the propulsion units (120, 210), wherein the plurality of arms (110, 208) comprises a first plurality of arms (110, 208) and a second plurality of arms (110, 208), wherein the first plurality of arms (110, 208) extends from the first body portion and the second plurality of arms (110, 208) extends from the second body portion wherein in the first configuration, the first body portion is positioned above the second body portion of the unmanned aerial vehicle such that all portions of the first body portion are being above all portions of the second body portion.
A process for preparing isobutene by dissociation of methyl tert-butyl ether (MTBE) in the gas phase, characterized in that it comprises the steps a) fractional distillation of an MTBE-containing stream comprising feed MTBE and a recycle stream (VIII) to give an MTBE-containing overhead stream and a bottom stream having a boiling point higher than MTBE, b) catalytic dissociation of the overhead stream obtained in step a) to give a dissociation product, c) separation by distillation of the dissociation product obtained in step b) into an overhead stream comprising more than 90% by mass of isobutene and a bottom stream comprising diisobutene, MTBE and more than 50% of the methanol present in the dissociation product, d) fractional distillation of the bottom stream obtained in step c) under conditions under which the methanol is obtained as bottom product and more than 99% of the MTBE is obtained in the overhead product (VIII) and e) recirculation of the overhead product (VIII) to step a), where industrial MTBE is used as stream in which MTBE 2-methoxybutane is present, where the dissociation in step b) is carried out under conditions under which the conversion of MTBE is greater than the conversion of 2-methoxybutane, so that the dissociation product has a concentration of less than 1000 ppm by mass of linear butenes based on the C 4 -olefin fraction, even when the overhead stream has a proportion of 2-methoxybutane (MSBE) of greater than 1000 ppm by mass based on MTBE, wherein a catalyst which decomposes MTBE more quickly than 2-methoxybutane is used in process step b), so that the ratio of linear butenes to isobutene in stream is smaller than the ratio of 2-methoxybutane to MTBE in stream, and wherein the fractional distillation in step a) is carried out so that the stream obtained has a concentration of 2-methoxybutane based on MTBE of less than 2500 ppm by mass. a) fractional distillation of an MTBE-containing stream comprising feed MTBE and a recycle stream (VIII) to give an MTBE-containing overhead stream and a bottom stream having a boiling point higher than MTBE, b) catalytic dissociation of the overhead stream obtained in step a) to give a dissociation product, c) separation by distillation of the dissociation product obtained in step b) into an overhead stream comprising more than 90% by mass of isobutene and a bottom stream comprising diisobutene, MTBE and more than 50% of the methanol present in the dissociation product, d) fractional distillation of the bottom stream obtained in step c) under conditions under which the methanol is obtained as bottom product and more than 99% of the MTBE is obtained in the overhead product (VIII) and e) recirculation of the overhead product (VIII) to step a),
Multi-stage planetary transmission for a bicycle or a pedelec, having a transmission input shaft as input drive and a transmission output shaft as output drive, having at least three planetary gear sets (VRS, VR1, VR2, RS1, RS2, NRS, NR1, NR2), a first planetary gear set and a second planetary gear set being designed as a main shifting gear set and at least one further planetary gear set (VRS, VR1, VR2, NRS, NR1, NR2) being designed as a front-mounted gear set or as a rear-mounted gear set, wherein at least three free-wheel clutches (F1, F2, F3, F4) and at least three brakes (B1, B2, B3, B4) are provided for realising at least eight gears (G1, G2, G3, G4, G5, G6, G7, G8, G9, G10, G11, G12, G13, G14, G15, G16), characterized in that a planet carrier of the first planetary gear set is connected to a sun gear of the second planetary gear set, wherein a ring gear of the first planetary gear set is fixable via a second brake and is connectable via a second free-wheel clutch to a planet carrier of the second planetary gear set or to a ring gear of the second planetary gear set, wherein the planet carrier of the second planetary gear set is connected to the transmission input shaft or to a gear set element as output of a front-mounted gear set (VR1, VRS), wherein the ring gear of the second planetary gear set is connected to the transmission output shaft or to a gear set element as input of a rear-mounted gear set (NRS, NR1), wherein either a sun gear of the first planetary gear set is fixable via a first brake and is connectable via a first free-wheel clutch to the planet carrier of the second planetary gear set or to the ring gear of the second planetary gear set, or a sun gear of the first planetary gear set is connected to the planet carrier of the second planetary gear set or to the ring gear of the second planetary gear set.
A method for quality evaluation of a handheld blood glucose meter, wherein the handheld blood glucose meter is operable by a human user in a sequence of handling steps to test an analyte in a sample fluid applied on a test element, the method comprising the steps of (a) programming a handling cycle for a robot having at least one robot arm in order to mimic the sequence of handling steps performed by a human user, particularly using a graphical user interface for simplified programming of the handling cycle as a chain of preprogrammed modules which define elementary movements of the robot; (b) operating the handheld blood glucose meter in at least one handling cycle by means of the robot, wherein the handling cycle comprises at least one of: - using an artificial finger on the robot arm to apply sample fluid to a test element, specifically whole blood or artificial blood, - grabbing the device with a receiving end of the robot arm, - continuously carrying the device by the robot arm or depositing the device intermittently within the reach of the robot arm, (c) monitoring the operation in step (b) by a control unit and evaluating at least one parameter influencing the quality of the device. (a) programming a handling cycle for a robot having at least one robot arm in order to mimic the sequence of handling steps performed by a human user, particularly using a graphical user interface for simplified programming of the handling cycle as a chain of preprogrammed modules which define elementary movements of the robot; (b) operating the handheld blood glucose meter in at least one handling cycle by means of the robot, wherein the handling cycle comprises at least one of: - using an artificial finger on the robot arm to apply sample fluid to a test element, specifically whole blood or artificial blood, - grabbing the device with a receiving end of the robot arm, - continuously carrying the device by the robot arm or depositing the device intermittently within the reach of the robot arm, - using an artificial finger on the robot arm to apply sample fluid to a test element, specifically whole blood or artificial blood, - grabbing the device with a receiving end of the robot arm, - continuously carrying the device by the robot arm or depositing the device intermittently within the reach of the robot arm, (c) monitoring the operation in step (b) by a control unit and evaluating at least one parameter influencing the quality of the device.
Adapter piece for fastening a shoulder rest to a string instrument, comprising an adapter member which is provided with at least four clamping fingers which can be brought into engagement with a peripheral base edge of the string instrument to be supported, at least two of the clamping fingers being positioned such that they can be brought into engagement with the peripheral base edge in the region of the outer blocks of the string instrument, and each of said clamping fingers having a clamping hook, characterised in that each clamping hook engages only around the peripheral base edge, without touching the body wall.
A horizontal hammer mill for milling material, which comprises: - a housing with a substantially cylindrical shape, which defines inside it a milling chamber, said housing having an inlet for said material, at a first axial end, and an outlet for said material, at a second axial end, - a rotating shaft, inside said housing and coaxial therewith, a plurality of hammers being keyed on said rotating shaft, - means that are adapted to produce an action propelling said material from said inlet toward said outlet, - a hopper for loading said material, which is connected to a first duct, said first duct being in turn connected to said inlet, - a second duct which is connected to said outlet, - downstream of said outlet, suction means which are fluidically connected to said outlet and/or to said second duct, characterized in that - said means adapted to produce a propelling action being pneumatic conveyance means which comprise a blower, - said means adapted to produce a propelling action being fluidically connected to said first duct, upstream of said hopper, and to said inlet. - a housing with a substantially cylindrical shape, which defines inside it a milling chamber, said housing having an inlet for said material, at a first axial end, and an outlet for said material, at a second axial end, - a rotating shaft, inside said housing and coaxial therewith, a plurality of hammers being keyed on said rotating shaft, - means that are adapted to produce an action propelling said material from said inlet toward said outlet, - a hopper for loading said material, which is connected to a first duct, said first duct being in turn connected to said inlet, - a second duct which is connected to said outlet, - downstream of said outlet, suction means which are fluidically connected to said outlet and/or to said second duct, characterized in that - said means adapted to produce a propelling action being pneumatic conveyance means which comprise a blower, - said means adapted to produce a propelling action being fluidically connected to said first duct, upstream of said hopper, and to said inlet.
A server, comprising: a memory including a verification engine that is configured to verify that a station is executing an application authorized to be assigned a first access class from a plurality of access classes and to assign the first access class to the station, and further configured to verify that a station is not executing the application authorized to be assigned the first access class and to assign a second access class from the plurality of access classes to the station; and a processor operatively coupled to the memory, the processor configured to be operatively coupled via a network to an access poin configured to transmit data from the station, in response to a verification that the station is executing the application, the processor configured to provision first quality of service, QoS, parameters to the station based on the first access class, in response to a verification that the station is not executing the application, the processor configured to provision second QoS parameters to the station based on the second access class, the second access class having a priority lower than a priority of the first access class, the processor configured to send at least one of the first QoS parameters or the second QoS parameters to the access point causing the access point to transmit the data from the station based on the at least one of the first QoS parameters or the second QoS parameters. a memory including a verification engine that is configured to verify that a station is executing an application authorized to be assigned a first access class from a plurality of access classes and to assign the first access class to the station, and further configured to verify that a station is not executing the application authorized to be assigned the first access class and to assign a second access class from the plurality of access classes to the station; and a processor operatively coupled to the memory, the processor configured to be operatively coupled via a network to an access poin configured to transmit data from the station, in response to a verification that the station is executing the application, the processor configured to provision first quality of service, QoS, parameters to the station based on the first access class, in response to a verification that the station is not executing the application, the processor configured to provision second QoS parameters to the station based on the second access class, the second access class having a priority lower than a priority of the first access class, the processor configured to send at least one of the first QoS parameters or the second QoS parameters to the access point causing the access point to transmit the data from the station based on the at least one of the first QoS parameters or the second QoS parameters.
A method for installing a liner (22,36) in an underground utility structure, having an interior surface, wherein a drum carries a dry liner (22,36), a motor is connected to the drum and regulates the speed at which the drum rotates, and a computer controller regulates the motor, the method comprising the steps of: applying a first resin coating to the interior surface of the pipeline; applying limited pressure, in conjunction with the computer controller and dispensing motor, to invert the dry liner (22,36) into the interior of said pipeline at a controlled inversion rate of less than or equal to 0.15m (0.5 feet) per minute; and increasing a pressure on the interior of said dry liner (22,36), after said liner is fully inverted to embed said dry liner into said resin coating to fully bed said liner into said resin coating. wherein a drum carries a dry liner (22,36), a motor is connected to the drum and regulates the speed at which the drum rotates, and a computer controller regulates the motor, the method comprising the steps of: applying a first resin coating to the interior surface of the pipeline; applying limited pressure, in conjunction with the computer controller and dispensing motor, to invert the dry liner (22,36) into the interior of said pipeline at a controlled inversion rate of less than or equal to 0.15m (0.5 feet) per minute; and increasing a pressure on the interior of said dry liner (22,36), after said liner is fully inverted to embed said dry liner into said resin coating to fully bed said liner into said resin coating. applying a first resin coating to the interior surface of the pipeline; applying limited pressure, in conjunction with the computer controller and dispensing motor, to invert the dry liner (22,36) into the interior of said pipeline at a controlled inversion rate of less than or equal to 0.15m (0.5 feet) per minute; and increasing a pressure on the interior of said dry liner (22,36), after said liner is fully inverted to embed said dry liner into said resin coating to fully bed said liner into said resin coating.