mhurhangee/ep-ind-claims huggingface dataset:
A graphene derivative, characterized in that it is represented by the following formula: wherein: A represents a graphene substrate; n represents the number of the group represented by the following formula and is a positive integer equal to or less than a half (1/2) of the total number of carbon atoms in the graphene substrate: wherein each group represented by formula is connected to adjacent two carbon atoms of a carbon ring of the graphene substrate, and each carbon atom of the graphene substrate connects with at most one group represented by formula; each X independently represents an electron-withdrawing group; and each R independently represents any one of -R 1, -R 2, -O-R 1, -O-R 2, -R 1 -C 6 H 5,-R 2 -C 6 H 5, and -R 3, wherein each R 1 is independently an n-alkyl group having no less than 5 carbon atoms, each R 2 is independently a substituted n-alkyl group having no less than 5 carbon atoms in its main chain and having an alkyl substituent, the C 6 H 5 represents a phenyl group which is connected to the end of R 1 or R 2, and R 3 is an aryl group. A represents a graphene substrate; n represents the number of the group represented by the following formula and is a positive integer equal to or less than a half (1/2) of the total number of carbon atoms in the graphene substrate: wherein each group represented by formula is connected to adjacent two carbon atoms of a carbon ring of the graphene substrate, and each carbon atom of the graphene substrate connects with at most one group represented by formula; each X independently represents an electron-withdrawing group; and each R independently represents any one of -R 1, -R 2, -O-R 1, -O-R 2, -R 1 -C 6 H 5,-R 2 -C 6 H 5, and -R 3, wherein each R 1 is independently an n-alkyl group having no less than 5 carbon atoms, each R 2 is independently a substituted n-alkyl group having no less than 5 carbon atoms in its main chain and having an alkyl substituent, the C 6 H 5 represents a phenyl group which is connected to the end of R 1 or R 2, and R 3 is an aryl group.
A side-load air filter cartridge comprising: a) a media pack configured for installation into a side opening of an air cleaner housing, the media pack extending along a longitudinal axis between an inlet end and an outlet end, the media pack defining an outer perimeter; b) a seal arrangement operatively positioned with respect to the media pack, the seal arrangement defining an axial seal surface facing towards the outlet flow end, a portion of which is arranged at an oblique angle to the longitudinal axis; c) a first connection member configured to engage with a first lock mechanism of the air cleaner to secure the media pack within the air cleaner housing, the first connection member being operably connected to the media pack with a portion of the first connection member extending axially beyond the media pack outlet flow end; and d) a second connection member located opposite the first connection member and configured to engage with a second lock mechanism of the air cleaner to additionally secure the media pack within the air cleaner housing, the second connection member being operably connected to the media pack with a portion of the second connection member extending axially beyond the media pack inlet flow end; e) wherein the first and second connection members are operable to respectively engage with the first and second lock mechanisms to axially align and fix the filter cartridge within the housing to effectuate a seal between the seal arrangement and the housing; and f) a cover portion, wherein one or both of the first and second connection members are provided on the cover portion. a) a media pack configured for installation into a side opening of an air cleaner housing, the media pack extending along a longitudinal axis between an inlet end and an outlet end, the media pack defining an outer perimeter; b) a seal arrangement operatively positioned with respect to the media pack, the seal arrangement defining an axial seal surface facing towards the outlet flow end, a portion of which is arranged at an oblique angle to the longitudinal axis; c) a first connection member configured to engage with a first lock mechanism of the air cleaner to secure the media pack within the air cleaner housing, the first connection member being operably connected to the media pack with a portion of the first connection member extending axially beyond the media pack outlet flow end; and d) a second connection member located opposite the first connection member and configured to engage with a second lock mechanism of the air cleaner to additionally secure the media pack within the air cleaner housing, the second connection member being operably connected to the media pack with a portion of the second connection member extending axially beyond the media pack inlet flow end; e) wherein the first and second connection members are operable to respectively engage with the first and second lock mechanisms to axially align and fix the filter cartridge within the housing to effectuate a seal between the seal arrangement and the housing; and f) a cover portion, wherein one or both of the first and second connection members are provided on the cover portion.
A solar radiation shielding member, wherein a first dielectric film, a first metal film, a second dielectric film, a second metal film, a third dielectric film, a third metal film, and a fourth dielectric film are stacked in this order on a transparent substrate, wherein the first dielectric film comprises at least two dielectric layers containing a layer having a refractive index of 2.4 or greater, and the first dielectric film as a whole has a refractive index in a range of 1.8-2.0, wherein the second dielectric film has an optical film thickness of 165-201 nm, wherein the third dielectric film has an optical film thickness of 147-182 nm, wherein the fourth dielectric film has an optical film thickness of 75-120 nm, wherein a geometric film thickness of the first metal film, the second metal film, and the third metal film is 30-40 nm in total, wherein a geometric film thickness of the second metal film is in a range of 1.01-1.55 relative to a geometric film thickness of each of the first metal film and the third metal film.
A retention clip of a supply retainer (200, 300, 400) for an imaging device supply, comprising: a first wall (104, 204, 304); a second wall (106, 206, 308), spaced apart from the first wall (104, 204, 304)so as to define a carton slot in between the first wall (104, 204, 304)and the second wall (106, 206, 308), the carton slot to receive a dividing wall (218, 318, 418) of a carton; and a retention opening (110, 210, 310) extending through the first wall (104, 204, 304) and the second wall (106, 206, 308) and extending to a leading edge of the retention clip (102,202, 302, 402), the retention opening (110, 210, 310) to receive a spout (326, 426) of a supply bladder and to engage with a shoulder of the spout (326, 426) so as to prevent the spout (326, 426) from being moved out of the retention opening (110, 210, 310) along an axis of the spout (326, 426), characterized in that the retention opening (110, 210, 310) is defined by a first U-shaped opening in the first wall (104, 204, 304) and a second U-shaped opening in the second wall (106, 206, 308), aligned with the first U- shaped opening. a first wall (104, 204, 304); a second wall (106, 206, 308), spaced apart from the first wall (104, 204, 304)so as to define a carton slot in between the first wall (104, 204, 304)and the second wall (106, 206, 308), the carton slot to receive a dividing wall (218, 318, 418) of a carton; and a retention opening (110, 210, 310) extending through the first wall (104, 204, 304) and the second wall (106, 206, 308) and extending to a leading edge of the retention clip (102,202, 302, 402), the retention opening (110, 210, 310) to receive a spout (326, 426) of a supply bladder and to engage with a shoulder of the spout (326, 426) so as to prevent the spout (326, 426) from being moved out of the retention opening (110, 210, 310) along an axis of the spout (326, 426), characterized in that the retention opening (110, 210, 310) is defined by a first U-shaped opening in the first wall (104, 204, 304) and a second U-shaped opening in the second wall (106, 206, 308), aligned with the first U- shaped opening.
An UV blocking film comprising microfibrillated cellulose wherein at least part of the microfibrillated cellulose is microfibrillated cellulose produced from mechanical pulp wherein the film comprises 5-40% by weight of fiber based material of microfibrillated cellulose produced from mechanical pulp wherein the mechanical pulp is chemithermomechanical pulp (CTMP), thermomechanical pulp, pressure groundwood pulp and/or stone groundwood pulp and the film further comprises 50-97.5% by weight of fiber based material of microfibrillated cellulose produced from chemical pulp.
Therapeutic fusion protein comprising a) a coagulation factor, or a fragment thereof, b) a half-life enhancing polypeptide selected from the group consisting of immunoglobulins without antigen binding domains, and c) a peptide linker which joins the coagulation factor or fragment thereof and the half-life enhancing polypeptide; wherein the peptide linker is cleavable by proteases involved in coagulation or activated by coagulation enzymes and in that the therapeutic fusion protein has in comparison to the respective therapeutic fusion protein linked by a noncleavable linker having the amino acid sequence GGGGGGV: (i) an increased molar specific activity in at least one coagulation-related assay; and (ii) an increased elimination rate of the activated coagulation factor after the peptide linker is proteolytically cleaved in a coagulation-related mode. a) a coagulation factor, or a fragment thereof, b) a half-life enhancing polypeptide selected from the group consisting of immunoglobulins without antigen binding domains, and c) a peptide linker which joins the coagulation factor or fragment thereof and the half-life enhancing polypeptide; (i) an increased molar specific activity in at least one coagulation-related assay; and (ii) an increased elimination rate of the activated coagulation factor after the peptide linker is proteolytically cleaved in a coagulation-related mode.
A process for manufacturing a heat stable plant based protein product, characterized in that the method comprises the steps of: a) providing a plant based protein concentrate, b) providing a hydrocolloid raw material selected from alginates in an amount of 0.5 - 10% (w/w) based on the weight of the composition of the protein product, c) providing a protein crosslinking enzyme, d) mixing the plant based protein concentrate and the hydrocolloid raw material to form a product mass, e) subjecting the mass to a heat treatment, f) cooling the heat treated mass, g) adding a protein crosslinking enzyme to the mass, h) optionally adding a protease to the mass, i) adjusting the pH of the product to a range of 5.2 to 6.5, j) optionally cutting the formed product mass into desired form, such as a block, a cube, a stripe, a mince, a grain or a slice, k) optionally seasoning and/or packing the product mass, wherein the heat stable plant based protein product has a protein content of about 20% to about 55% or about 20% to about 50% or about 23% to about 30%, a carbohydrate content from about 5% to about 40%, and a dry matter content of about 30% to about 70%. a) providing a plant based protein concentrate, b) providing a hydrocolloid raw material selected from alginates in an amount of 0.5 - 10% (w/w) based on the weight of the composition of the protein product, c) providing a protein crosslinking enzyme, d) mixing the plant based protein concentrate and the hydrocolloid raw material to form a product mass, e) subjecting the mass to a heat treatment, f) cooling the heat treated mass, g) adding a protein crosslinking enzyme to the mass, h) optionally adding a protease to the mass, i) adjusting the pH of the product to a range of 5.2 to 6.5, j) optionally cutting the formed product mass into desired form, such as a block, a cube, a stripe, a mince, a grain or a slice, k) optionally seasoning and/or packing the product mass,
A vehicle knuckle, comprising: a bushing formed of metal material; and a knuckle body formed of carbon fiber reinforcement plastic material and having at least one bushing hole to which a ball joint is couplable, wherein at least a portion of the bushing is coupled to the bushing hole of the knuckle body through press-fit, wherein an axial length of the bushing except for a flange portion is smaller than an axial length of the bushing hole in a cross-section taken along an axial direction of the bushing, and wherein the knuckle body is manufactured by filling a mold with carbon chip material comprising carbon fiber reinforcement plastic material and then hot-press forming the carbon chip material filled in the mold under high temperature and high pressure environment. a bushing formed of metal material; and a knuckle body formed of carbon fiber reinforcement plastic material and having at least one bushing hole to which a ball joint is couplable, wherein at least a portion of the bushing is coupled to the bushing hole of the knuckle body through press-fit, wherein an axial length of the bushing except for a flange portion is smaller than an axial length of the bushing hole in a cross-section taken along an axial direction of the bushing, and wherein the knuckle body is manufactured by filling a mold with carbon chip material comprising carbon fiber reinforcement plastic material and then hot-press forming the carbon chip material filled in the mold under high temperature and high pressure environment.
A coolant supply device comprising: a pump that supplies a coolant to a tool; a measurement device that measures a discharge pressure of the pump; and a control device, wherein the control device has a function of determining a pump discharge flow rate, a coolant flow path diameter of the tool, and a target value of a pump discharge pressure required at a time of boring performed by the tool, based on a rotation rate of the pump and the pump discharge pressure of the pump measured by the measurement device, a function of increasing or decreasing the rotation rate of the pump by comparing the target value with a measured pump discharge pressure measured by the measurement device, and a function of determining whether or not boring by the tool is completed based on the measured pump discharge pressure. a pump that supplies a coolant to a tool; a measurement device that measures a discharge pressure of the pump; and a control device, wherein the control device has a function of determining a pump discharge flow rate, a coolant flow path diameter of the tool, and a target value of a pump discharge pressure required at a time of boring performed by the tool, based on a rotation rate of the pump and the pump discharge pressure of the pump measured by the measurement device, a function of increasing or decreasing the rotation rate of the pump by comparing the target value with a measured pump discharge pressure measured by the measurement device, and a function of determining whether or not boring by the tool is completed based on the measured pump discharge pressure.
A method of wireless communication, comprising: transmitting, by a user equipment, UE, a scheduling request for calibration to a base station; receiving, at the UE, an identification of scheduled resources for calibration from the base station; transmitting, by the UE, an uplink, UL, calibration reference signal, RS, and a calibration request to the base station; receiving (612, 615, 620, 625), by the UE, in response to the calibration request from the base station, a downlink, DL, calibration RS and an UL channel estimate of an UL channel associated with the UE and the base station; calibrating, by the UE, one or more parameters of the UE based on the UL channel estimate and a DL channel estimate of a DL channel associated with the UE and the base station determined from the DL calibration RS; and applying, by the UE, the one or more calibrated parameters for communicating with the base station. transmitting, by a user equipment, UE, a scheduling request for calibration to a base station; receiving, at the UE, an identification of scheduled resources for calibration from the base station; transmitting, by the UE, an uplink, UL, calibration reference signal, RS, and a calibration request to the base station; receiving (612, 615, 620, 625), by the UE, in response to the calibration request from the base station, a downlink, DL, calibration RS and an UL channel estimate of an UL channel associated with the UE and the base station; calibrating, by the UE, one or more parameters of the UE based on the UL channel estimate and a DL channel estimate of a DL channel associated with the UE and the base station determined from the DL calibration RS; and applying, by the UE, the one or more calibrated parameters for communicating with the base station.
A method for generating a secret key shared by a group of at least three terminals (A, B, C) from characteristics of wireless communication channels connecting said terminals by pairs, comprising, at each of said terminals of the group, the implementation of the following steps of: - acquiring ( ch BA, ch CA) signals from the wireless communication channels, called adjacent channels, connected to the terminal and generating a representation of each adjacent channel ( y BA, y CA); - for the at least one wireless communication channel, called non-adjacent channel, not connected to the terminal, acquiring at least one image of the non-adjacent channel ( r BA (), r CA ()) and generating a representation of the non-adjacent channel ( ỹ BC), - determining the secret key (K A) from a combination of the representations of the adjacent channels ( y BA, y CA) and the at least one representation of the non-adjacent channel ( ỹ BC). - acquiring ( ch BA, ch CA) signals from the wireless communication channels, called adjacent channels, connected to the terminal and generating a representation of each adjacent channel ( y BA, y CA); - for the at least one wireless communication channel, called non-adjacent channel, not connected to the terminal, acquiring at least one image of the non-adjacent channel ( r BA (), r CA ()) and generating a representation of the non-adjacent channel ( ỹ BC), - determining the secret key (K A) from a combination of the representations of the adjacent channels ( y BA, y CA) and the at least one representation of the non-adjacent channel ( ỹ BC).
A telematics device for attaching to a vehicle's on-board diagnostic system, said telematics device comprising: a flexible circuit board mounted within a housing and comprising a first, a second and an intermediate portion; said first, second and intermediate portions being rigid portions and being linked by flexible portions between them, forming one single piece which can be folded; said flexible circuit board comprising a conductive layer forming a ground plane, said flexible circuit board being folded within said housing such that at least a part of said first portion overlies at least a part of said second portion, said conductive layer extending across said first, second and intermediate portions; wherein one of said portions further comprises an extension part extending beyond at least one of said first, intermediate and second portions and having an antenna mounted proximate to a far end of said extension part; and said first portion comprises, mounted on an outward facing side facing away from said second portion, a connector for connecting to said diagnostic connector on said vehicle; said second portion comprises, mounted on an outward facing side facing away from said first portion, a GPS antenna for receiving signals from GPS satellite; and said telematics device further comprises a power source, said power source being mounted between said first portion and said second portion. a flexible circuit board mounted within a housing and comprising a first, a second and an intermediate portion; said first, second and intermediate portions being rigid portions and being linked by flexible portions between them, forming one single piece which can be folded; said flexible circuit board comprising a conductive layer forming a ground plane, said flexible circuit board being folded within said housing such that at least a part of said first portion overlies at least a part of said second portion, said conductive layer extending across said first, second and intermediate portions; wherein one of said portions further comprises an extension part extending beyond at least one of said first, intermediate and second portions and having an antenna mounted proximate to a far end of said extension part; and said first portion comprises, mounted on an outward facing side facing away from said second portion, a connector for connecting to said diagnostic connector on said vehicle; said second portion comprises, mounted on an outward facing side facing away from said first portion, a GPS antenna for receiving signals from GPS satellite; and said telematics device further comprises a power source, said power source being mounted between said first portion and said second portion.
A method of manufacturing a micro-mechanical element, the method comprising the steps of: providing a layer of base material; depositing a conductive layer on the base material; patterning the conductive layer to form a first conductive layer and a first electrode separated from the first conductive layer; applying one, at least partly sacrificial layer of an etchable material over the first conductive layer, the first electrode separated from the first conductive layer, and the base material located between the first conductive layer and the first electrode; patterning the at least partly sacrificial layer such that a portion of the first conductive layer is exposed, to define at least a portion of the shape of the element, wherein the element comprises at least one structural layer; applying the at least one structural layer of a mechanical material consisting of titanium nitride over the exposed first conductive layer and the sacrificial layer remaining over the first electrode and the base material; patterning the structural layer such that a portion of the structural layer remains over the first conductive layer and the first electrode, to form at least a portion of the element, wherein the element consists of titanium nitride; and removing at least partly the patterned at least partly sacrificial layer to at least partly free the element. providing a layer of base material; depositing a conductive layer on the base material; patterning the conductive layer to form a first conductive layer and a first electrode separated from the first conductive layer; applying one, at least partly sacrificial layer of an etchable material over the first conductive layer, the first electrode separated from the first conductive layer, and the base material located between the first conductive layer and the first electrode; patterning the at least partly sacrificial layer such that a portion of the first conductive layer is exposed, to define at least a portion of the shape of the element, wherein the element comprises at least one structural layer; applying the at least one structural layer of a mechanical material consisting of titanium nitride over the exposed first conductive layer and the sacrificial layer remaining over the first electrode and the base material; patterning the structural layer such that a portion of the structural layer remains over the first conductive layer and the first electrode, to form at least a portion of the element, wherein the element consists of titanium nitride; and removing at least partly the patterned at least partly sacrificial layer to at least partly free the element.