mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method of imposing quality requirements on a 3D model including support structures to be built by an additive manufacturing apparatus comprising: a platform for holding the 3D object corresponding to the 3D model, the method comprising: a step of defining the surface geometry and the orientation of the 3D model with respect to the platform, wherein the surface geometry includes surface segments; characterized by further comprising: a step of attributing a degree of quality (L;H) to the surface segments respectively against post-processing for the subsequent removal of the support structures; a step of calculating, based on the defined orientation, the surface geometry and the degree of quality (L;H) attributed, the positions on the surface segments where the support structure may be added; and a step of adding the support structure to the 3D model based on the calculated positions and the degree of quality (L;H) attributed. a step of defining the surface geometry and the orientation of the 3D model with respect to the platform, wherein the surface geometry includes surface segments; characterized by further comprising: a step of attributing a degree of quality (L;H) to the surface segments respectively against post-processing for the subsequent removal of the support structures; a step of calculating, based on the defined orientation, the surface geometry and the degree of quality (L;H) attributed, the positions on the surface segments where the support structure may be added; and a step of adding the support structure to the 3D model based on the calculated positions and the degree of quality (L;H) attributed. a step of attributing a degree of quality (L;H) to the surface segments respectively against post-processing for the subsequent removal of the support structures; a step of calculating, based on the defined orientation, the surface geometry and the degree of quality (L;H) attributed, the positions on the surface segments where the support structure may be added; and a step of adding the support structure to the 3D model based on the calculated positions and the degree of quality (L;H) attributed.
A rotary frame construction for web transport control devices, the rotary frame construction comprising a carrier frame and a rotary frame which extends in parallel with the carrier frame and carries an input roller and an output roller for a web to be controlled and is pivotably mounted on the carrier frame by means of a bearing, the bearing having a virtual rotation center that is defined by control surfaces (34, 36) of one of the carrier frame and the rotary frame, the control surfaces being scanned by cam followers on the other of the frames, the frames being held in parallel alignment by means of support rollers on one of the frames and associated run surfaces on the other frame, the frames being connected with one another so as to be pivotable by means of a drive system, characterized in that the control surfaces (34, 36) are constituted by three control curves that are formed at the outer edges of a cam plate that is rigidly held on one of the frames, two of the control curves being located on one side of the cam plate and the third on the opposite side of the cam plate, and the other of the frames has three cam followers that are respectively associated with one of the control curves.
Welding torch for arc welding, comprising - a holder for retaining a welding electrode and for transmitting electric current to the welding electrode, - a neck attached to the holder for supporting the holder and for transmitting electric current to the holder, and - a handle attached to the neck at a distal end of the handle, wherein the neck is arranged to be connected to a cable for transmitting electric current to the neck, and the handle is arranged to receive the cable inside the handle, characterized in that the handle comprises a body made of flexible material, such as silicone rubber, for allowing movement of the distal end of the handle in relation to a proximal end of the handle. - a holder for retaining a welding electrode and for transmitting electric current to the welding electrode, - a neck attached to the holder for supporting the holder and for transmitting electric current to the holder, and - a handle attached to the neck at a distal end of the handle, the neck is arranged to be connected to a cable for transmitting electric current to the neck, and the handle is arranged to receive the cable inside the handle, characterized in that the handle comprises a body made of flexible material, such as silicone rubber, for allowing movement of the distal end of the handle in relation to a proximal end of the handle.
A driving model generation device that generates a driving model on the basis of driving operation of a vehicle by a driver, and the driving model generation device comprising: a state quantity detector that detects a vehicle state quantity that changes according to driving operation by the driver; and a model generator (142, 222) that, on the basis of the vehicle state quantity when the driver starts a specific driving operation and the vehicle state quantity when the driver ends the specific driving operation, generates a driving model to be used as a reference related to the specific driving operation, wherein the vehicle state quantity includes a movement distance or movement time of the vehicle from the start of the specific driving operation to the end thereof and an amount of change in vehicle behavior from the start of the driving operation to the end thereof, the model generator is configured to generate as the driving model a model that shows changes over time in vehicle behavior from the start of the driving operation to the end thereof, and characterised in that the generation device further includes a gradual change processor (143, 143A, 223) that carries out gradual change processing, which is processing for decreasing a degree of change in vehicle behavior per unit time or per unit distance shown by the previously generated driving model. a state quantity detector that detects a vehicle state quantity that changes according to driving operation by the driver; and a model generator (142, 222) that, on the basis of the vehicle state quantity when the driver starts a specific driving operation and the vehicle state quantity when the driver ends the specific driving operation, generates a driving model to be used as a reference related to the specific driving operation, wherein the vehicle state quantity includes a movement distance or movement time of the vehicle from the start of the specific driving operation to the end thereof and an amount of change in vehicle behavior from the start of the driving operation to the end thereof, the model generator is configured to generate as the driving model a model that shows changes over time in vehicle behavior from the start of the driving operation to the end thereof, and characterised in that the generation device further includes a gradual change processor (143, 143A, 223) that carries out gradual change processing, which is processing for decreasing a degree of change in vehicle behavior per unit time or per unit distance shown by the previously generated driving model.
An electrolytic copper foil for a negative electrode current collector for a lithium-ion secondary battery constituting the negative electrode current collector for the lithium-ion secondary battery, the electrolytic copper foil having a surface roughness Rz of from 0.8 to 2.8 μm on both a first surface (S surface) and a second surface (M surface), a 0.2% proof stress after heat treatment for 30 minutes to one hour and 30 minutes at a temperature between 200 to 400°C of 250 N/mm 2 or more and an elongation of 2.5% or more, and at least one of surfaces of the electrolytic copper foil being stain-proofed. the electrolytic copper foil having a surface roughness Rz of from 0.8 to 2.8 μm on both a first surface (S surface) and a second surface (M surface), a 0.2% proof stress after heat treatment for 30 minutes to one hour and 30 minutes at a temperature between 200 to 400°C of 250 N/mm 2 or more and an elongation of 2.5% or more, and at least one of surfaces of the electrolytic copper foil being stain-proofed.
A process for the treatment of a component using a fluidised bed of solid particles, the process comprising: forming a fluidised bed in a treatment chamber and retaining the fluidised bed in the treatment chamber by one or more containment surfaces, and placing at least one treatment part of the component in the fluidised bed and locating at least one non-treatment part of the component substantially outside the chamber and out of contact with the fluidised bed, wherein the boundary between the treatment part and the non-treatment part of the component is defined by a boundary containment surface at a fixed location with respect to the component, and wherein the treatment chamber has at least one side wall is adapted to the shape of the component having one or more apertures (26-34, 83) corresponding in shape and location to the treatment part of the component, the side wall defining the boundary containment surface, and the component being disposed with respect to the treatment chamber so that the treatment part of the component is located within the treatment chamber on one side of the side wall and so that the non-treatment part of the component is located on the other side of the side wall, outside the treatment chamber. forming a fluidised bed in a treatment chamber and retaining the fluidised bed in the treatment chamber by one or more containment surfaces, and placing at least one treatment part of the component in the fluidised bed and locating at least one non-treatment part of the component substantially outside the chamber and out of contact with the fluidised bed, wherein the boundary between the treatment part and the non-treatment part of the component is defined by a boundary containment surface at a fixed location with respect to the component, and wherein the treatment chamber has at least one side wall is adapted to the shape of the component having one or more apertures (26-34, 83) corresponding in shape and location to the treatment part of the component, the side wall defining the boundary containment surface, and the component being disposed with respect to the treatment chamber so that the treatment part of the component is located within the treatment chamber on one side of the side wall and so that the non-treatment part of the component is located on the other side of the side wall, outside the treatment chamber.
A connector fitting device configured to fit a first connector to a second connector, comprising: a movable arm body connected to a base on a base end side of the movable arm body; and a gripper connected to a distal end side of the movable arm body, configured to grip the first connector, and including a pair of clamping portions, wherein the connector fitting device is configured to move the gripper to an arbitrary position in a three-dimensional space and in an arbitrary direction in the three-dimensional space, characterized in that the pair of clamping portions each includes first two protrusions protruding toward an opponent clamping portion and arranged spaced apart from each other in a vertical direction orthogonal to the fitting direction of the first connector with respect to the second connector and orthogonal to the clamping direction of the pair of clamping portions, and a contact surface formed rearward of the first two protrusions. a movable arm body connected to a base on a base end side of the movable arm body; and a gripper connected to a distal end side of the movable arm body, configured to grip the first connector, and including a pair of clamping portions, wherein the connector fitting device is configured to move the gripper to an arbitrary position in a three-dimensional space and in an arbitrary direction in the three-dimensional space, characterized in that the pair of clamping portions each includes first two protrusions protruding toward an opponent clamping portion and arranged spaced apart from each other in a vertical direction orthogonal to the fitting direction of the first connector with respect to the second connector and orthogonal to the clamping direction of the pair of clamping portions, and a contact surface formed rearward of the first two protrusions.
A multilayer film comprising at least one core layer comprising a polypropylene composition comprising: A) From 90 wt% to 50 wt%; of a propylene homopolymer having a fraction insoluble in xylene at 25°C greater than 90 wt%; B) From 10 wt% to 50 wt%; of a propylene ethylene copolymer having: i) xylene soluble fraction at 25°C ranging from 14 wt% to 27 wt% ii) intrinsic viscosity of the fraction soluble in xylene at 25°C ranging from 1.0 to 2.4 dl/g; iii) melt flow rate, MFR, measured according to ISO 1133 at 230 °C with a load of 2.16 kg, ranging from 1.0 g/10 min to 4.0 g/10 min; iv) an ethylene derived units content ranging from 5.0 wt% to 12.0 wt% v) the ethylene derived units content on the fraction insoluble in xylene at 25°C ranging from 2.5 wt% to 6.0 wt%; vi) the ethylene derived units content on the fraction soluble in xylene at 25°C ranging from 15.2. wt% to 30.2 wt% vii) the C 13 NMR sequences PEP measured on the fraction insoluble in xylene at 25°C ranging from 3.5mol% to 5.5mol% and the C 13 NMR sequences PEP measured on the fraction soluble in xylene at 25°C ranging from 11.0 mol% to 14.2 mol%; the sum of A) and B) being 100wt%. A) From 90 wt% to 50 wt%; of a propylene homopolymer having a fraction insoluble in xylene at 25°C greater than 90 wt%; B) From 10 wt% to 50 wt%; of a propylene ethylene copolymer having: i) xylene soluble fraction at 25°C ranging from 14 wt% to 27 wt% ii) intrinsic viscosity of the fraction soluble in xylene at 25°C ranging from 1.0 to 2.4 dl/g; iii) melt flow rate, MFR, measured according to ISO 1133 at 230 °C with a load of 2.16 kg, ranging from 1.0 g/10 min to 4.0 g/10 min; iv) an ethylene derived units content ranging from 5.0 wt% to 12.0 wt% v) the ethylene derived units content on the fraction insoluble in xylene at 25°C ranging from 2.5 wt% to 6.0 wt%; vi) the ethylene derived units content on the fraction soluble in xylene at 25°C ranging from 15.2. wt% to 30.2 wt% vii) the C 13 NMR sequences PEP measured on the fraction insoluble in xylene at 25°C ranging from 3.5mol% to 5.5mol% and the C 13 NMR sequences PEP measured on the fraction soluble in xylene at 25°C ranging from 11.0 mol% to 14.2 mol%; i) xylene soluble fraction at 25°C ranging from 14 wt% to 27 wt% ii) intrinsic viscosity of the fraction soluble in xylene at 25°C ranging from 1.0 to 2.4 dl/g; iii) melt flow rate, MFR, measured according to ISO 1133 at 230 °C with a load of 2.16 kg, ranging from 1.0 g/10 min to 4.0 g/10 min; iv) an ethylene derived units content ranging from 5.0 wt% to 12.0 wt% v) the ethylene derived units content on the fraction insoluble in xylene at 25°C ranging from 2.5 wt% to 6.0 wt%; vi) the ethylene derived units content on the fraction soluble in xylene at 25°C ranging from 15.2. wt% to 30.2 wt% vii) the C 13 NMR sequences PEP measured on the fraction insoluble in xylene at 25°C ranging from 3.5mol% to 5.5mol% and the C 13 NMR sequences PEP measured on the fraction soluble in xylene at 25°C ranging from 11.0 mol% to 14.2 mol%;
A wireless communication device comprising: a first antenna; a second antenna; and a planar conductor comprising sides and outer edges, the planar conductor arranged adjacent to both of the first and second antennas on one side of the planar conductor, wherein the first antenna and the second antenna are configured to support overlapping frequency bands; the planar conductor is not in contact with, and is electrically isolated from, the first and second antennas; an outer edge portion of the planar conductor is arranged to be opposed to the first and second antennas to arrange the planar conductor to overlap the first and second antennas as seen from a side face of the planar conductor; a cutout portion that extends from the outer edge portion of the planar conductor between positions adjacent to the first and second antennas is formed in the planar conductor, wherein the cutout portion is configured to resonate at a frequency in use by the first antenna and the second antenna; anc characterized in that areas of the planar conductor at the positions adjacent to the first and second antennas are thicker than other areas. a first antenna; a second antenna; and a planar conductor comprising sides and outer edges, the planar conductor arranged adjacent to both of the first and second antennas on one side of the planar conductor, wherein the first antenna and the second antenna are configured to support overlapping frequency bands; the planar conductor is not in contact with, and is electrically isolated from, the first and second antennas; an outer edge portion of the planar conductor is arranged to be opposed to the first and second antennas to arrange the planar conductor to overlap the first and second antennas as seen from a side face of the planar conductor; a cutout portion that extends from the outer edge portion of the planar conductor between positions adjacent to the first and second antennas is formed in the planar conductor, wherein the cutout portion is configured to resonate at a frequency in use by the first antenna and the second antenna; anc characterized in that areas of the planar conductor at the positions adjacent to the first and second antennas are thicker than other areas.
Audio equipment, comprising: a rotary operation unit configured to be rotatably supported in relation to an equipment body; an operation detecting section provided for the rotary operation unit and in which an electric load changes in response to a user's operation through pressing or contact; a power supplying section provided for the equipment body and configured to supply power to the operation detecting section in a non-contact manner; and a monitoring section configured to monitor the power supplied by the power supplying section to detect tne users operation from a cnange in the power, wherein the operation detecting section rotates together with tne rotary operation unit 11). a rotary operation unit configured to be rotatably supported in relation to an equipment body; an operation detecting section provided for the rotary operation unit and in which an electric load changes in response to a user's operation through pressing or contact; a power supplying section provided for the equipment body and configured to supply power to the operation detecting section in a non-contact manner; and a monitoring section configured to monitor the power supplied by the power supplying section to detect tne users operation from a cnange in the power, wherein the operation detecting section rotates together with tne rotary operation unit 11).
A three-dimensional object created by Fused Deposition Modeling, FDM, of a modeling material from polyaryletherketones (PAEK), polyphenylsulfides, polyamide-imide, polyethersulfon, polyetherimide, polysulfon, polyphenylsulfon, polycarbonates, poly(acrylonitrile butadiene styrene), polymethylmethacrylate (PMMA), polyethyleneterephtalate, polystryrene, acrylonitrilstyrene acrylate, polypropylene, polylactic acid, polyvinylalcohol, polyethylene, polyoxymethylene, polyurethane, copolymers of polyvinylalcohol and butenediolvinylalcohol and mixtures thereof, optionally filled with inorganic or organic fillers, characterized in that the object has a porosity of less than 5 vol%, as determined according to the porosity test procedure 'Porosity test' as defined in the description.
Catalyst support having a catalytic layer, comprising at least: an inner core, which contains or consists of at least one phase change material, a cladding layer around the inner core, which contains or consists of at least one metal oxide, and a catalytically active layer, which is arranged in interspaces of the cladding layer and/or such that it rests on the cladding layer, wherein at least one catalytically active substance is contained in the catalytically active layer, characterized in that the catalyst support further comprises a support layer, which is arranged below the cladding layer. an inner core, which contains or consists of at least one phase change material, a cladding layer around the inner core, which contains or consists of at least one metal oxide, and a catalytically active layer, which is arranged in interspaces of the cladding layer and/or such that it rests on the cladding layer, wherein at least one catalytically active substance is contained in the catalytically active layer, characterized in that the catalyst support further comprises a support layer, which is arranged below the cladding layer.
An efficient care-type variable endotracheal tube ventilation device, comprising: a telescopic endotracheal tube main body with a variable length, wherein the endotracheal tube main body comprises: a main tube of a telescopic stacked endotracheal tube, wherein an endotracheal tube plugging cuff is sheathed outside the endotracheal tube main body, and the endotracheal tube plugging cuff is provided near a variable endotracheal tube head part, wherein the variable endotracheal tube head part is connected to one end of the main tube of the telescopic stacked endotracheal tube; and the other end of the main tube of the telescopic stacked endotracheal tube is connected to an endotracheal tube connector, characterized in that the variable endotracheal tube head part is formed of a temperature control material, and the variable endotracheal tube head part is configured to develop to a cylindrical shape when a temperature reaches more than 30 degrees centigrade or 54.6 degrees Fahrenheit (12.6°C), and to be retracted back to a conical shape when the temperature reaches lower than 10 degrees centigrade or 18.6 degrees Fahrenheit (-7.4 °C); or the variable endotracheal tube head part is in a stacked conical shape, and is configured in such a manner that the stacked conical shape of the variable endotracheal tube head part is capable of developing to the cylindrical shape by an air flow aeration method.
A method for communication, comprising: modulating data to produce a series of symbols defined in a signal space; pulse-shaping the symbols using a given pulse shape; transmitting to a receiver a signal, which comprises a sequence of the pulse-shaped symbols transmitted at a symbol rate that is higher than a Nyquist rate defined for the given pulse shape; and prior to pulse-shaping the symbols, pre-compensating for Inter-Symbol Interference in the signal; characterized in that the symbol rate is higher than the Nyquist rate by a given Faster-Than-Nyquist factor; and in that pre-compensating for Inter-Symbol Interference comprises applying to the symbols a lattice precoding operation that is defined based on the given Faster-Than-Nyquist factor, confines the symbols to a predefined volume in the signal space, and is computed independently of any feedback from the receiver. modulating data to produce a series of symbols defined in a signal space; pulse-shaping the symbols using a given pulse shape; transmitting to a receiver a signal, which comprises a sequence of the pulse-shaped symbols transmitted at a symbol rate that is higher than a Nyquist rate defined for the given pulse shape; and prior to pulse-shaping the symbols, pre-compensating for Inter-Symbol Interference in the signal; characterized in that the symbol rate is higher than the Nyquist rate by a given Faster-Than-Nyquist factor; and in that pre-compensating for Inter-Symbol Interference comprises applying to the symbols a lattice precoding operation that is defined based on the given Faster-Than-Nyquist factor, confines the symbols to a predefined volume in the signal space, and is computed independently of any feedback from the receiver.