mhurhangee/ep-ind-claims huggingface dataset:
A printable recording media comprising a supporting base substrate having: a. on its image side, i. a pre-coating layer that contains inorganic pigments and polymeric binders, ii. and a top ink-receiving layer that includes inorganic pigments, polymeric binders and non-film forming polymers, wherein a weight ratio of non-film forming polymer to inorganic pigment in the top ink-receiving layer is from 1:100 to 1:10, and wherein the ink-receiving layer is applied directly over said pre-coating layer; b. and having a polymer barrier layer on its backside. a. on its image side, i. a pre-coating layer that contains inorganic pigments and polymeric binders, ii. and a top ink-receiving layer that includes inorganic pigments, polymeric binders and non-film forming polymers, wherein a weight ratio of non-film forming polymer to inorganic pigment in the top ink-receiving layer is from 1:100 to 1:10, and wherein the ink-receiving layer is applied directly over said pre-coating layer; i. a pre-coating layer that contains inorganic pigments and polymeric binders, ii. and a top ink-receiving layer that includes inorganic pigments, polymeric binders and non-film forming polymers, wherein a weight ratio of non-film forming polymer to inorganic pigment in the top ink-receiving layer is from 1:100 to 1:10, and wherein the ink-receiving layer is applied directly over said pre-coating layer; b. and having a polymer barrier layer on its backside.
A damping arrangement for tracks to be traveled on by rail vehicles with flanged wheels, comprising a. a rail with a rail head, a rail web and a rail foot, wherein the rail has an outer side facing away from the track interior and the rail head has a lateral outer rail head flank facing away from the track interior and an outer rail head underside facing away from the track interior, and b. an outer lateral profile of elastomeric material, which is arranged on the outer side of the rail facing away from the track interior and abuts on the outer side of the rail at least in the region of the lateral outer rail head flank and in the region of the outer rail head underside, wherein the outer lateral profile has close to the rail a region with cavities in the elastomeric material, which is elastically resilient with respect to the railhead, in the region of the outer rail head underside and in the region of the lateral outer rail head flank and remote from the rail a solidly designed region in the region of the lateral outer rail head flank, and wherein the elastically resilient region and the solid region consist of the same elastomeric material, characterized in that the cross section of the outer lateral profile in the region of the lateral outer rail head flank is greater than in the region of the rail head underside. a. a rail with a rail head, a rail web and a rail foot, wherein the rail has an outer side facing away from the track interior and the rail head has a lateral outer rail head flank facing away from the track interior and an outer rail head underside facing away from the track interior, and b. an outer lateral profile of elastomeric material, which is arranged on the outer side of the rail facing away from the track interior and abuts on the outer side of the rail at least in the region of the lateral outer rail head flank and in the region of the outer rail head underside,
A computer-implemented method to determine an occurrence of progressive failures of rupture disks along a wellbore, the method comprising: (a) analyzing (200,202,204,206,208,210,212,214,216) a configuration of the wellbore; (b) determining an annular pressure buildup of the wellbore based upon the configuration of the wellbore; (c) determining whether progressive failure of the rupture disks will occur along the wellbore; and (d) outputting a report reflecting the determination of step (c). (a) analyzing (200,202,204,206,208,210,212,214,216) a configuration of the wellbore; (b) determining an annular pressure buildup of the wellbore based upon the configuration of the wellbore; (c) determining whether progressive failure of the rupture disks will occur along the wellbore; and (d) outputting a report reflecting the determination of step (c).
A semiconductor device in which a plurality of segments (104a-d) are formed on a semiconductor substrate, each segment (104a-d) including a plurality of driving means for discharging a liquid in nozzles, each driving means including a driving circuit and an element which is driven by the driving circuit to apply, to the liquid, energy for discharging the liquid in the nozzle, wherein the semiconductor device includes a power supply pad (105a,b) which receives supply of external power, and a plurality of conductive patterns (106, 107) which supply the power from the power supply pad (105a,b) to the respective segments, each of the conductive patterns (106, 107) includes a first conductive portion (108a-d, 121a-d) which is connected to the power supply pad (105a/b) and elongates in a first direction, and a second rectangular conductive portion (109c,d, 122c,d) which elongates in the first direction, wherein a length of the second conductive portion (109c,d, 122c,d) in a second direction perpendicular to the first direction is larger than a length of the first conductive portion (108a-d, 121a-d) in the second direction and the second conductive portion (109c,d, 122c,d) is connected to the first conductive portion (108a-d, 121a-d) at a first corner (109d1, 122d1), characterized in that each of the conductive patterns (106, 107) further includes a third conductive portion (111a,d, 124a,b,d) which is connected to the plurality of driving means, and a connection portion (110a,d, 123b,d) which connects the second conductive portion (109c,d, 122c,d) and the third conductive portion (111a,d, 124a,b,d), wherein the second conductive portion (109c,d, 122c,d) is connected to the connection portion (110a,d, 123b,d) at a second corner (109d2, 122d2) being diagonally opposite to the first corner (109d1, 122d1), and the third conductive portion (111a,d, 124a,b,d) elongates from a portion connected to the connection portion (110a,d, 123b,d) in the first direction.
A substrate holder for a lithographic apparatus, the substrate holder configured to support a lower surface of a substrate, wherein the substrate holder comprises: a main body having a substrate-facing face; a plurality of burls protruding from the substrate-facing face, each burl having a distal end configured to engage with the substrate, the distal ends substantially conforming to a support plane and being configured for supporting the substrate; and a coating on the substrate-facing face between the burls, the coating having a thickness; wherein between the burls the substrate-facing face comprises an arrangement of areas (42;43), characerised in that adjacent ones of the areas are separated by a step-change in distance below the support plane, wherein each step-change is greater than the thickness of the coating. a main body having a substrate-facing face; a plurality of burls protruding from the substrate-facing face, each burl having a distal end configured to engage with the substrate, the distal ends substantially conforming to a support plane and being configured for supporting the substrate; and a coating on the substrate-facing face between the burls, the coating having a thickness; wherein between the burls the substrate-facing face comprises an arrangement of areas (42;43), characerised in that adjacent ones of the areas are separated by a step-change in distance below the support plane, wherein each step-change is greater than the thickness of the coating.
A lighting device comprising: a. a light source comprising a light emitting diode arranged to generate light source light; b. a luminescent material arranged downstream of the light source and arranged to convert at least part of the light source light into luminescent material light, wherein one or more of the light source and the luminescent material generate heat when the light source generates light source light; and c. a thermally variable reflecting element, arranged downstream of the light source and the luminescent material, having a first state wherein it is substantially reflecting and a second state wherein it is substantially transparent, and wherein heat induces a change from the first state to the second state, wherein the thermally variable reflecting element is arranged to transmit at least part of one or more selected from the group consisting of the light source light and luminescent material light when being in the second state, and wherein the lighting device is arranged to transport heat generated by one or more of the light source and the luminescent material to the thermally variable reflecting element. a. a light source comprising a light emitting diode arranged to generate light source light; b. a luminescent material arranged downstream of the light source and arranged to convert at least part of the light source light into luminescent material light, wherein one or more of the light source and the luminescent material generate heat when the light source generates light source light; and c. a thermally variable reflecting element, arranged downstream of the light source and the luminescent material, having a first state wherein it is substantially reflecting and a second state wherein it is substantially transparent, and wherein heat induces a change from the first state to the second state, wherein the thermally variable reflecting element is arranged to transmit at least part of one or more selected from the group consisting of the light source light and luminescent material light when being in the second state, and
A door entrapment detector configured to detect whether or not a door for opening and closing an entrance of a vehicle is in an entrapment state, the door entrapment detector comprising: an obtainment unit obtaining an output signal from a detection sensor (53, 54; 73, 74), the detection sensor (53, 54; 73, 74) detecting deformation of an elastic member (51, 52) attached to a leading edge of the door; a detection signal generation unit performing a process for reducing an effect of vibration that is caused by traveling of the vehicle and included in the output signal obtained by the obtainment unit to generate a detection signal, wherein the detection signal generation unit includes a filter for removing different frequency components of the vibration from the output signal depending on a travel state of the vehicle; and a determination unit determining whether or not the door is in an entrapment state based on the detection signal generated by the detection signal generation unit, characterized by the detection signal generation unit raising a lower limit of a frequency that is removed by the filter of the detection signal generation unit as the speed of the vehicle increases. an obtainment unit obtaining an output signal from a detection sensor (53, 54; 73, 74), the detection sensor (53, 54; 73, 74) detecting deformation of an elastic member (51, 52) attached to a leading edge of the door; a detection signal generation unit performing a process for reducing an effect of vibration that is caused by traveling of the vehicle and included in the output signal obtained by the obtainment unit to generate a detection signal, wherein the detection signal generation unit includes a filter for removing different frequency components of the vibration from the output signal depending on a travel state of the vehicle; and a determination unit determining whether or not the door is in an entrapment state based on the detection signal generated by the detection signal generation unit, characterized by the detection signal generation unit raising a lower limit of a frequency that is removed by the filter of the detection signal generation unit as the speed of the vehicle increases.
A device (300, 500) for supporting a body part, comprising: a sleeve (310, 510) adapted to support the body part, the sleeve containing a chamber that is configured to have substantially all of the air contained therein evacuated characterized by a flexible radiofrequency surface receive coil (350, 550) for magnetic resonance imaging disposed within the chamber. a sleeve (310, 510) adapted to support the body part, the sleeve containing a chamber that is configured to have substantially all of the air contained therein evacuated characterized by a flexible radiofrequency surface receive coil (350, 550) for magnetic resonance imaging disposed within the chamber.
A method of preparing a negative electrode active material, comprising: forming a carbon coating layer on a silicon-based precursor represented by SiO x (0<x<2); thermally treating the silicon-based precursor on which the carbon coating layer is formed in a temperature range of 350 to 600 °C, which includes thermally reducing a silicon-based precursor with a metal reducing agent in an inert atmosphere; and preparing a silicon-based composite represented by SiO a (0<a<1) and having a surface on which a carbon coating layer is distributed by removing impurities; wherein the silicon-based composite includes an amorphous silicon. forming a carbon coating layer on a silicon-based precursor represented by SiO x (0<x<2); thermally treating the silicon-based precursor on which the carbon coating layer is formed in a temperature range of 350 to 600 °C, which includes thermally reducing a silicon-based precursor with a metal reducing agent in an inert atmosphere; and preparing a silicon-based composite represented by SiO a (0<a<1) and having a surface on which a carbon coating layer is distributed by removing impurities; wherein the silicon-based composite includes an amorphous silicon.
A semiconductor device comprising: a terminal electrode; a heat dissipating substrate; an insulating substrate arranged on the heat dissipating substrate and including a wiring layer; a plurality of semiconductor elements arranged on the insulating substrate; and a conductive block electrically connected to a front surface electrode of the semiconductor element, wherein the conductive block has a convex portion, wherein the convex portion is bonded to the insulating substrate, wherein the conductive block is bonded to each of the plurality of semiconductor elements, and characterised in that the plurality of semiconductor elements are all capable of switching on/off current and arranged to be substantially equally spaced with respect to a bonding portion between the convex portion of the conductive block and the terminal electrode. a terminal electrode; a heat dissipating substrate; an insulating substrate arranged on the heat dissipating substrate and including a wiring layer; a plurality of semiconductor elements arranged on the insulating substrate; and a conductive block electrically connected to a front surface electrode of the semiconductor element, wherein the conductive block has a convex portion, wherein the convex portion is bonded to the insulating substrate, wherein the conductive block is bonded to each of the plurality of semiconductor elements, and characterised in that the plurality of semiconductor elements are all capable of switching on/off current and arranged to be substantially equally spaced with respect to a bonding portion between the convex portion of the conductive block and the terminal electrode.
Peroxide masterbatch comprising: - 15-55 wt% of one or more organic peroxides, - 15-45 wt% of at least one copolymer of (i) ethylene or propylene and (ii) 1-butene and/or 1-octene, and - 13-45 wt% of at least two types of fillers - filler type 1 and filler type 2 - each having a different BET surface area: (i) filler type 1 being present in the masterbatch in a concentration of 3-15 wt% and having a BET surface area of more than 100 m 2 /g; (ii) filler type 2 being present in the masterbatch in a concentration of 10-30 wt% and having a BET surface area of 100 m 2 /g or less. - 15-55 wt% of one or more organic peroxides, - 15-45 wt% of at least one copolymer of (i) ethylene or propylene and (ii) 1-butene and/or 1-octene, and - 13-45 wt% of at least two types of fillers - filler type 1 and filler type 2 - each having a different BET surface area: (i) filler type 1 being present in the masterbatch in a concentration of 3-15 wt% and having a BET surface area of more than 100 m 2 /g; (ii) filler type 2 being present in the masterbatch in a concentration of 10-30 wt% and having a BET surface area of 100 m 2 /g or less. (i) filler type 1 being present in the masterbatch in a concentration of 3-15 wt% and having a BET surface area of more than 100 m 2 /g; (ii) filler type 2 being present in the masterbatch in a concentration of 10-30 wt% and having a BET surface area of 100 m 2 /g or less.
A method comprising: determining, at a node, a degree of interference at the node; receiving, at the node, at least one message from at least one neighboring node, the at least one message including another degree of interference observed at the at least one neighboring node; determining a difference between the degree of interference at the node and the at least another degree of interference of the at least one neighboring node; and adjusting, based on the difference, at least one of the receiver sensitivity of the node or the clear channel assessment detection range of the node. determining, at a node, a degree of interference at the node; receiving, at the node, at least one message from at least one neighboring node, the at least one message including another degree of interference observed at the at least one neighboring node; determining a difference between the degree of interference at the node and the at least another degree of interference of the at least one neighboring node; and adjusting, based on the difference, at least one of the receiver sensitivity of the node or the clear channel assessment detection range of the node.
A method of flexibly scaling vehicle monitoring system functionality, said method comprising: receiving vehicle data from an on-board vehicle computing system associated with a vehicle; said method being characterized in that it further comprises: determining an indication of whether or not the vehicle data comprises a vehicle identification data object; determining a first operational level from a plurality of operational levels in response to the indication of whether or not the vehicle data comprises the vehicle identification data object; in an instance in which the vehicle data is determined to comprise the vehicle identification data object, setting the first operational level as an operational level at least partially based on the vehicle; receiving first vehicle data relating to vehicle operation from the on-board vehicle computing system; and causing rendering of a graphical user interface comprising one or more first renderable data objects associated with the first operational level, wherein the one or more first renderable data objects are based on the first vehicle data. receiving vehicle data from an on-board vehicle computing system associated with a vehicle; said method being characterized in that it further comprises: determining an indication of whether or not the vehicle data comprises a vehicle identification data object; determining a first operational level from a plurality of operational levels in response to the indication of whether or not the vehicle data comprises the vehicle identification data object; in an instance in which the vehicle data is determined to comprise the vehicle identification data object, setting the first operational level as an operational level at least partially based on the vehicle; receiving first vehicle data relating to vehicle operation from the on-board vehicle computing system; and causing rendering of a graphical user interface comprising one or more first renderable data objects associated with the first operational level, wherein the one or more first renderable data objects are based on the first vehicle data. determining an indication of whether or not the vehicle data comprises a vehicle identification data object; determining a first operational level from a plurality of operational levels in response to the indication of whether or not the vehicle data comprises the vehicle identification data object; in an instance in which the vehicle data is determined to comprise the vehicle identification data object, setting the first operational level as an operational level at least partially based on the vehicle; receiving first vehicle data relating to vehicle operation from the on-board vehicle computing system; and causing rendering of a graphical user interface comprising one or more first renderable data objects associated with the first operational level, wherein the one or more first renderable data objects are based on the first vehicle data.
Household appliance with at least one user interface for inputting and outputting information and a door, which has an edge (14, 14'), wherein the at least one user interface extends partially or wholly around the edge (14, 14'), characterised by a first surface (3a, 19) of the household appliance and a second surface (3b, 20) of the household appliance, which are connected to one another by way of the edge (14, 14'), wherein the at least one user interface extends continuously from the first surface (3a, 19) to the second surface (3b, 20), further characterised in that the at least one user interface is a touchscreen for inputting and outputting information, wherein the at least one user interface has a first surface and a second surface in each case for inputting and/or outputting information, wherein the first surface of the at least one user interface points in at least one first spatial direction and the second surface of the at least one user interface points in at least one second spatial direction and wherein the first and second spatial direction differ from one another.
An apparatus (100, 200) for measuring fouling parameters in a fluid comprising: a housing (101, 201); a conduit (103, 203) within the housing, wherein at least a portion of the conduit provides a carbon dioxide permeable membrane; a carbon dioxide sensor (113, 213) within the housing configured to measure carbon dioxide levels at the sensor; a light source (115, 215) within the housing that irradiates a portion of the conduit; and a light sensor (117, 217) within the housing configured to measure light transmitted through or reflected by the irradiated portion of the conduit. a housing (101, 201); a conduit (103, 203) within the housing, wherein at least a portion of the conduit provides a carbon dioxide permeable membrane; a carbon dioxide sensor (113, 213) within the housing configured to measure carbon dioxide levels at the sensor; a light source (115, 215) within the housing that irradiates a portion of the conduit; and a light sensor (117, 217) within the housing configured to measure light transmitted through or reflected by the irradiated portion of the conduit.