mhurhangee/ep-ind-claims huggingface dataset:
A smoking article (1, 100, 200, 300) comprising a plurality of cylindrical elements, including a front-plug (2, 102, 202, 302) and an aerosol-forming substrate, assembled in contact with a cigarette paper to form a rod, the cigarette paper retaining the elements in position by an interference interaction, the rod having a mouth end and a distal end upstream from the mouth end, in which the front-plug (2, 102, 202, 302) has a length of between 1 mm and 10 mm and is located upstream of the aerosol-forming substrate within the rod, the front plug being penetrable by a heating element of an aerosol-generating device such that the heating element can be inserted into the smoking article (1, 100, 200, 300) through the front-plug (2, 102, 202, 302) and contact the aerosol-forming substrate, characterised in that the front-plug (102, 202, 302) defines a hole (103, 303) or slit through which the heating element can pass.
An apparatus configured to design a footwear part, comprising: a data store comprising footwear template models and executable software; a manufacturing system; a data collection system collecting data regarding a particular user, having a static data collection component and a dynamic data collection component which comprises a sensor and a processor in data communication with the data store and the data collection system, wherein the processor is configured to execute the software and cause the apparatus to: receive user data associated with a user; generate a user model based on the received user data; determine corrective features based on a comparison of the user model to shape models as well as performance models, wherein the corrective features comprise areas of reduced or increased thickness and bending lines, ribs, cuts, or striations, which enhance or inhibit bending of the footwear part in certain directions; and generate a custom footwear model for the footwear part comprising the determined corrective features. a data store comprising footwear template models and executable software; a manufacturing system; a data collection system collecting data regarding a particular user, having a static data collection component and a dynamic data collection component which comprises a sensor and a processor in data communication with the data store and the data collection system, wherein the processor is configured to execute the software and cause the apparatus to: receive user data associated with a user; generate a user model based on the received user data; determine corrective features based on a comparison of the user model to shape models as well as performance models, wherein the corrective features comprise areas of reduced or increased thickness and bending lines, ribs, cuts, or striations, which enhance or inhibit bending of the footwear part in certain directions; and generate a custom footwear model for the footwear part comprising the determined corrective features. receive user data associated with a user; generate a user model based on the received user data; determine corrective features based on a comparison of the user model to shape models as well as performance models, wherein the corrective features comprise areas of reduced or increased thickness and bending lines, ribs, cuts, or striations, which enhance or inhibit bending of the footwear part in certain directions; and generate a custom footwear model for the footwear part comprising the determined corrective features.
A fitting for a building door, with an handle, in particular a door knob, and with a transmission element, which may be brought into operative connection with a lock and onto which a torque movement of the handle is transferable, wherein the transmission element is supported in the fitting such that a first end of the transmission element facing away from the handle is movable into several spatial directions, characterized in that the fitting is an electro-mechanical fitting, which includes a coupling element, wherein the coupling element is movable into a coupled position, in which the coupling element is in operative connection with the transmission element or may be brought into operative connection with the transmission element by a movement of the handle, and a torque moment from the handle is transferable onto the transmission element, wherein the coupling element is movable into an uncoupled position, in which the coupling element is out of operative connection from the transmission element, and the handle is movable with the coupling element, without transferring a torque moment to the transmission element, wherein, in the coupled position, the coupling element acts upon the transmission element via a counter-coupling element, wherein the counter-coupling element is positively and/or non-positively connected to the transmission element.
Alloy forming sulfur-containing metallic glass, having the following formula: (Ti, Zr, Nb, Hf, Fe.A a1) a Pd b (Cu,Ni) c (V,Mo,Ta,W) d (Co,Cr,Fe)e,(Mn,Al,In,Ga,Ag,Si,Ge) f Sn g Be h (B,C) i (O, H, N) j (P, S x1) x, wherein: a = 0 - 15 wt.% or 30 - 90 wt.%, b = 0 - 68 wt.% and a + b = 30 - 97 wt.%, whereby, if a = 0 - 15 wt.%, b = 35 - 68 wt.%, A is one or more elements of the group of rare earths, whereby rare earths refer to lanthanides and yttrium. whereby a1/a = 0 - 1/10, c = 0 - 65 wt.%, d = 0 - 15 wt.%, e = 0 - 15 wt.%, f = 0 - 15 wt.%, g = 0 - 23 wt.%, h = 0 - 1 wt.%, i = 0 - 3.5 wt.%, and j = 0 - 0.20 wt.%, whereby, if b = 0, a and at least one of c and e > 0, and if a = 0 - 15 wt.% and b = 35 - 68 wt.%,-at least one of c, d, e, f, g > 0 wt.%, and Fe and Fe each represent Fe, whereby Fe is present only if a = 0, x = 0.21 - 9 wt.%, if a= 30 - 90 wt.%, and x = 8 - 16.5 wt.%, if a = 0 - 15 wt.% and b > 35 wt., and x1/x ≥ 1/10 to 1, and the sum of all wt.% a + b + c + d + e + f + g + h + i + j + x = 100 wt.%, whereby at least if x1/x = 1 and x = 0.21 - 1 wt.%, alloys containing Fe, Ni and Al are at least 50 vol.% amorphous. a = 0 - 15 wt.% or 30 - 90 wt.%, b = 0 - 68 wt.% and a + b = 30 - 97 wt.%, whereby, if a = 0 - 15 wt.%, b = 35 - 68 wt.%, A is one or more elements of the group of rare earths, whereby rare earths refer to lanthanides and yttrium. whereby a1/a = 0 - 1/10, c = 0 - 65 wt.%, d = 0 - 15 wt.%, e = 0 - 15 wt.%, f = 0 - 15 wt.%, g = 0 - 23 wt.%, h = 0 - 1 wt.%, i = 0 - 3.5 wt.%, and j = 0 - 0.20 wt.%, whereby, if b = 0, a and at least one of c and e > 0, and if a = 0 - 15 wt.% and b = 35 - 68 wt.%,-at least one of c, d, e, f, g > 0 wt.%, and Fe and Fe each represent Fe, whereby Fe is present only if a = 0, x = 0.21 - 9 wt.%, if a= 30 - 90 wt.%, and x = 8 - 16.5 wt.%, if a = 0 - 15 wt.% and b > 35 wt., and x1/x ≥ 1/10 to 1, and the sum of all wt.% a + b + c + d + e + f + g + h + i + j + x = 100 wt.%, whereby at least if x1/x = 1 and x = 0.21 - 1 wt.%, alloys containing Fe, Ni and Al are at least 50 vol.% amorphous.
A method of controlling the feeding of a reducing agent, such as urea or ammonia, to a selective catalytic reduction reactor which comprises at least one catalyst layer and which is operative for removing NOx from a flow of process gas of a process plant, such as a combustion plant or an incineration plant, said at least one catalyst layer having an attack area facing the flow of process gas, said method being characterised in supplying, in at least one supply area which corresponds to a part of the attack area, at least a portion of said reducing agent to said at least one catalyst layer, and moving said supply area over the attack area.
Use of an amine of the formula for curing of epoxy resins: where R is H or methyl, and A is a phenylene or cyclohexylene radical. R is H or methyl, and A is a phenylene or cyclohexylene radical.
A method performed at a user equipment of requesting resource from a network node within a wireless network for transmitting uplink data, said uplink data being data that is to be transmitted as a direct communication directly between said user equipment and user equipment (50, 52) within at least one of a plurality of groups of user equipment of which said user equipment is a member, said method comprising: generating a status report said status report providing an indication of an amount of said uplink data and an indication of at least one group to which said uplink data is to be transmitted; transmitting an indication of a priority of said at least one group towards said network node; and transmitting said status report towards said network node. generating a status report said status report providing an indication of an amount of said uplink data and an indication of at least one group to which said uplink data is to be transmitted; transmitting an indication of a priority of said at least one group towards said network node; and transmitting said status report towards said network node.
A mobile robot management system comprising: a mobile robot: and a docking station, wherein the docking station comprises: a memory; a near-field communicator to communicate with the mobile robot; a function performer to remove dust collected in the mobile robot; a processor characterized in that the processor is configured to: based on receiving a command to discharge dust from the mobile robot through the near-field communicator, obtain information related to dust discharge operation, controlling the function performer to remove the dust in the mobile robot, and in order to transmit the obtained information related to the dust discharge operation to a user terminal device connected to the mobile robot, control the near-field communicator to transmit the information related to the dust discharge operation to the mobile robot. a mobile robot: and a docking station, wherein the docking station comprises: a memory; a near-field communicator to communicate with the mobile robot; a function performer to remove dust collected in the mobile robot; a processor characterized in that the processor is configured to: based on receiving a command to discharge dust from the mobile robot through the near-field communicator, obtain information related to dust discharge operation, controlling the function performer to remove the dust in the mobile robot, and in order to transmit the obtained information related to the dust discharge operation to a user terminal device connected to the mobile robot, control the near-field communicator to transmit the information related to the dust discharge operation to the mobile robot. a memory; a near-field communicator to communicate with the mobile robot; a function performer to remove dust collected in the mobile robot; a processor characterized in that the processor is configured to: based on receiving a command to discharge dust from the mobile robot through the near-field communicator, obtain information related to dust discharge operation, controlling the function performer to remove the dust in the mobile robot, and in order to transmit the obtained information related to the dust discharge operation to a user terminal device connected to the mobile robot, control the near-field communicator to transmit the information related to the dust discharge operation to the mobile robot. based on receiving a command to discharge dust from the mobile robot through the near-field communicator, obtain information related to dust discharge operation, controlling the function performer to remove the dust in the mobile robot, and in order to transmit the obtained information related to the dust discharge operation to a user terminal device connected to the mobile robot, control the near-field communicator to transmit the information related to the dust discharge operation to the mobile robot.
An inorganic degradable plastic masterbatch material, used to prepare various environmentally friendly degradable products, comprising the following components: calcium carbonate mineral powder with mass percentage of 56-72%; polyethylene with mass percentage of 3-10%; polypropylene with mass percentage of 18-30%; glass fibers with mass percentage of 2-5%; and additives with mass percentage of 2-5%; proportions of calcium carbonate mineral powder of different particle sizes in the above mentioned calcium carbonate mineral powder with mass percentage of 56-72% are: 5-15% for 230 mesh with particle diameter being controlled at 65-60 microns; 5-15% for 250 mesh with particle diameter being controlled at 60-55 microns; 5-15% for 300 mesh with particle diameter being controlled at 55-50 microns; 20-40% for 400 mesh with particle diameter being controlled at 50-35 microns; 10-45% for 800 mesh with particle diameter being controlled at 20-10 microns; 10-45% for 1200 mesh with particle diameter being controlled at 10-5 microns; wherein, an average particle size for the calcium carbonate mineral powder as a whole must be in a range between 20 microns and 45 microns. calcium carbonate mineral powder with mass percentage of 56-72%; polyethylene with mass percentage of 3-10%; polypropylene with mass percentage of 18-30%; glass fibers with mass percentage of 2-5%; and additives with mass percentage of 2-5%; proportions of calcium carbonate mineral powder of different particle sizes in the above mentioned calcium carbonate mineral powder with mass percentage of 56-72% are: 5-15% for 230 mesh with particle diameter being controlled at 65-60 microns; 5-15% for 250 mesh with particle diameter being controlled at 60-55 microns; 5-15% for 300 mesh with particle diameter being controlled at 55-50 microns; 20-40% for 400 mesh with particle diameter being controlled at 50-35 microns; 10-45% for 800 mesh with particle diameter being controlled at 20-10 microns; 10-45% for 1200 mesh with particle diameter being controlled at 10-5 microns; 5-15% for 230 mesh with particle diameter being controlled at 65-60 microns; 5-15% for 250 mesh with particle diameter being controlled at 60-55 microns; 5-15% for 300 mesh with particle diameter being controlled at 55-50 microns; 20-40% for 400 mesh with particle diameter being controlled at 50-35 microns; 10-45% for 800 mesh with particle diameter being controlled at 20-10 microns; 10-45% for 1200 mesh with particle diameter being controlled at 10-5 microns; wherein, an average particle size for the calcium carbonate mineral powder as a whole must be in a range between 20 microns and 45 microns.
A lighting assembly comprising: - a casing having a bowl-like structure with a bottom wall, said bottom wall defining a window opening, and, joined to said casing, a stack of elements comprising: - a light radiation source (12, 14) situated opposite said opening so as to direct said light radiation towards the outside of the casing; and - a driving circuit board for said radiation source (12, 14) characterized in that said circuit board is arranged between the bottom wall of said casing and said radiation source (12, 14), said radiation source (12, 14) comprising a part extending so as to close said casing. - a casing having a bowl-like structure with a bottom wall, said bottom wall defining a window opening, and, - a light radiation source (12, 14) situated opposite said opening so as to direct said light radiation towards the outside of the casing; and - a driving circuit board for said radiation source (12, 14) characterized in that said circuit board is arranged between the bottom wall of said casing and said radiation source (12, 14), said radiation source (12, 14) comprising a part extending so as to close said casing.
Method for obtaining an emulsifier, characterized in that it consists at least in mixing defibering dust separated or not separated from the lignocellulosic fraction, in which case the upper particle size limit of said lignocellulosic fraction is 4 mm, and a fat, such as saturated fatty acid or unsaturated fatty acid, in liquid form.
An apparatus, comprising: (a) a housing (22, 122) having an interior (30, 130) and a first housing end; (b) a shaft (24, 124) rotatably connected within the housing (22, 122), wherein the shaft (24, 124) has a shaft axis (26, 126), wherein the shaft (24, 124) is comprised of a shaft extension (50, 150) which extends from the interior (30, 130) of the housing (22, 122) at the first housing end, and wherein the shaft extension (50, 150) defines a first bearing shaft surface (100, 200); and (c) a first thrust bearing (62, 162) located axially between the first housing end and the first bearing shaft surface (100, 200), for transferring a first axial load between the shaft (24, 124) and the housing (22, 122); characterised in that the first thrust bearing (62, 162) comprises a removable first thrust bearing housing component (102, 202) threadably connected with the first housing end. (a) a housing (22, 122) having an interior (30, 130) and a first housing end; (b) a shaft (24, 124) rotatably connected within the housing (22, 122), wherein the shaft (24, 124) has a shaft axis (26, 126), wherein the shaft (24, 124) is comprised of a shaft extension (50, 150) which extends from the interior (30, 130) of the housing (22, 122) at the first housing end, and wherein the shaft extension (50, 150) defines a first bearing shaft surface (100, 200); and (c) a first thrust bearing (62, 162) located axially between the first housing end and the first bearing shaft surface (100, 200), for transferring a first axial load between the shaft (24, 124) and the housing (22, 122);
A glycosyltransferase mutant, based on the glycosyltransferase amino acid sequence shown in SEQ ID NO: 1, wherein the glycosyltransferase mutant is S195Q, and wherein the nucleotide sequence for the glycosyltransferase mutant S195Q is shown in SEQ ID NO: 6.
An electronic sensor unit for a motor vehicle, having a housing, a control and evaluation device arranged in the housing, which can be coupled to a control device of the motor vehicle, at least one capacitive sensor electrode having a detection region, the capacitive sensor electrode being coupled to the control and evaluation device and arranged in the housing and it being possible for the control and evaluation device to detect a capacitance change of the capacitive sensor electrode, a lighting device having a lamp, which can emit an optical signal, the lighting device being coupled to the control and evaluation device and it being possible to mark a target region characterizing the detection region outside the housing using the lighting device, the housing, the control and evaluation device, the at least one capacitive sensor electrode and the lighting device forming an integral module, and a nozzle arrangement, by means of which the lighting device can be loaded with a cleaning fluid, the nozzle arrangement being coupled to the control and evaluation device.
Automatic door with balanced movement consisting of a frame and a leaf, operated by a linear motor where the linear motor is composed of a roller carriage, an L-shaped running profile located in the horizontal section of the door frame, and a cover which closes laterally the running profile, whereby: • The roller carriage moves along the inside of the running profile, has rollers on its side and is divided into a major block containing a set of coils as well as an electronic block, the major block also comprising a pair of brushes protruding laterally beyond the rollers at the beginning and another pair of brushes protruding laterally beyond the rollers at the end, and a minor block, located closer to the hinge area than the major block, from the underside of which protrudes the shaft from which hangs the leaf with the capacity to rotate on the shaft; • The L-shaped running profile comprises an inner side wall and a top inner wall, the running profile further incorporating within it a roller track on which the rollers rotate freely, a control unit which controls the electronic block, two power supply tracks located along the inner side wall on which the brushes (101 and 102) contact and move, and an alignment of magnets that extend along the entire path of the roller carriage, arranged on the top inner wall, so that, in any position of the roller carriage, the coil assembly always faces the magnets; • The cover comprises an inner wall and detection means operatively connected to the control unit, said detection means being located on the inner wall of the cover, and detecting the position and speed of the electronic block, whereby the control unit manages the voltage and polarity of the electrical supply tracks. • The roller carriage moves along the inside of the running profile, has rollers on its side and is divided into a major block containing a set of coils as well as an electronic block, the major block also comprising a pair of brushes protruding laterally beyond the rollers at the beginning and another pair of brushes protruding laterally beyond the rollers at the end, and a minor block, located closer to the hinge area than the major block, from the underside of which protrudes the shaft from which hangs the leaf with the capacity to rotate on the shaft; • The L-shaped running profile comprises an inner side wall and a top inner wall, the running profile further incorporating within it a roller track on which the rollers rotate freely, a control unit which controls the electronic block, two power supply tracks located along the inner side wall on which the brushes (101 and 102) contact and move, and an alignment of magnets that extend along the entire path of the roller carriage, arranged on the top inner wall, so that, in any position of the roller carriage, the coil assembly always faces the magnets; • The cover comprises an inner wall and detection means operatively connected to the control unit, said detection means being located on the inner wall of the cover, and detecting the position and speed of the electronic block, whereby the control unit manages the voltage and polarity of the electrical supply tracks.