mhurhangee/ep-ind-claims huggingface dataset:
A compound represented by the following formula: wherein, in the formula, X m+ represents an m-valent counter cation and the m-valent counter cation X m+ is selected from a nitrogen-containing aliphatic cation represented by the following formula: (R 21) 2 N + = C(NR 22 2) 2 wherein, in the formula, R 21 each independently represents a hydrogen atom or an alkyl group, R 22 each independently represents a hydrogen atom or an alkyl group; a nitrogen-containing aliphatic cation represented by the following formula: wherein, in the formula, R 31 each independently represents a hydrogen atom or an organic group, and s represents an integer of 2 or more and 6 or less; a nitrogen-containing aromatic cation represented by the following formula: wherein, in the formula, R H, R 41 and R 42 represent a hydrogen atom; or a cation represented by the following formula: m is 1; n is 0; R 3 is absent as n is 0; R 4, R 5, R 6 and R 7 are hydrogen atoms; and R 8 is -O-R 9, wherein R 9 is an alkyl group having 1 or more and 3 or less carbon atoms.
A waveguide apparatus, including: a single substrate of light transmissive material; at least one layer arranged within the substrate of material, the layer being arranged to define separate channels within the substrate of material, each channel being arranged to transmit light of a different predefined wavelength to the other channel or channels under total internal reflection; and a grating associated with each channel, wherein each grating is arranged to diffract a portion of light incident thereon out of the substrate of material and to allow the remainder of the light incident thereon to be transmitted in its associated channel under total internal reflection. a single substrate of light transmissive material; at least one layer arranged within the substrate of material, the layer being arranged to define separate channels within the substrate of material, each channel being arranged to transmit light of a different predefined wavelength to the other channel or channels under total internal reflection; and a grating associated with each channel, wherein each grating is arranged to diffract a portion of light incident thereon out of the substrate of material and to allow the remainder of the light incident thereon to be transmitted in its associated channel under total internal reflection.
An esterified cellulose ether having i) as ester groups aliphatic monovalent acyl groups or a combination of aliphatic monovalent acyl groups and groups of the formula - C - R - COOA wherein R is a divalent aliphatic or aromatic hydrocarbon group and A is hydrogen or a cation, ii) a weight average molecular weight M w of from 80,000 Dalton to 220,000 Dalton, iii) a Polydispersity M w /M n of from 1.3 to 4.0, and iv) an M z /M n of not more than 18.5, when the weight average molecular weight M w, the number average molecular weight M n and the z-average molecular weight M z are measured by SEC-MALLS using as mobile phase a mixture produced from 40 parts by volume of acetonitrile and 60 parts by volume of aqueous buffer containing 50 mM NaH 2 PO 4 and 0.1 M NaNO 3. i) as ester groups aliphatic monovalent acyl groups or a combination of aliphatic monovalent acyl groups and groups of the formula - C - R - COOA wherein R is a divalent aliphatic or aromatic hydrocarbon group and A is hydrogen or a cation, ii) a weight average molecular weight M w of from 80,000 Dalton to 220,000 Dalton, iii) a Polydispersity M w /M n of from 1.3 to 4.0, and iv) an M z /M n of not more than 18.5,
Pressure-measuring glow plug comprising a housing in which a glow plug for igniting a combustion mixture of an internal combustion engine and a pressure sensor for detecting a combustion chamber pressure of the internal combustion engine are arranged, comprising a contact-making unit which has a carrier for receiving a signal-processing unit and a plug connection with connection contacts, wherein the glow plug is exposed to the combustion chamber pressure and at least indirectly transmits the combustion chamber pressure to the pressure sensor, and wherein a plug housing is provided for the plug connection, characterized in that at least one glow module housing for receiving the glow plug and the pressure sensor and one electronics module housing for receiving the carrier are provided, wherein the electronics module housing, by way of at least one carrier-side supporting section, is supported on at least one carrier-side carrier section (42, 43) of the carrier or is guided there, and an interface is formed between the glow module housing and the electronics module housing, which interface has glow module-side contacts which are exposed on a glow module-side end side of the contact-making unit, and the interface additionally has a high-current contact which is exposed on the glow module-side end side of the contact-making unit, and the exposed glow module-side contacts and/or the exposed high-current contact are/is accessible in the uninstalled state of the pressure-measuring glow plug outside the electronics module housing.
A communications apparatus (10, 32, 70, 102, 104, 140) comprising: a first circuit comprising a wired medium interface circuit (12, 72, 142, 144) that is configured to communicate data over a wired medium; a communications link (18, 78, 156); a second circuit coupled to said first circuit via said communications link, said second circuit comprising a wireless medium interface circuit (16, 76, 152) that is configured to communicate data over a wireless medium, and a destination address controller (14, 74) comprised in the first circuit that is operative to determine to which of a plurality of destination addresses at said communication apparatus first data, received by the first circuit from the second circuit via said communications link, is to be communicated, wherein the plurality of destination addresses identify a plurality of devices attached to the communications apparatus; and a communications controller that is operative to provide for selective communication of the first data over each of the wired medium and the wireless medium, wherein the first data is communicated simultaneously over the wired medium and the wireless medium, with such simultaneously communicated first data being the first data sent to the same destination, wherein the communications controller is adapted to perform selective communication of the data by: determining how the first data is to be split among the wired and wireless medium; and transmit the split first data over the media simultaneously, and wherein the communications controller is adapted to provide for selective communication in dependence on the type of data being transmitted and the quality of service requirements. a first circuit comprising a wired medium interface circuit (12, 72, 142, 144) that is configured to communicate data over a wired medium; a communications link (18, 78, 156); a second circuit coupled to said first circuit via said communications link, said second circuit comprising a wireless medium interface circuit (16, 76, 152) that is configured to communicate data over a wireless medium, and a destination address controller (14, 74) comprised in the first circuit that is operative to determine to which of a plurality of destination addresses at said communication apparatus first data, received by the first circuit from the second circuit via said communications link, is to be communicated, wherein the plurality of destination addresses identify a plurality of devices attached to the communications apparatus; and a communications controller that is operative to provide for selective communication of the first data over each of the wired medium and the wireless medium, wherein the first data is communicated simultaneously over the wired medium and the wireless medium, with such simultaneously communicated first data being the first data sent to the same destination, determining how the first data is to be split among the wired and wireless medium; and transmit the split first data over the media simultaneously, and
A polymeric ophthalmic device material, having: a glass transition temperature of greater than 23°C in a dry state; a glass transition temperature of 15°C or lower in a fully hydrated state; a refractive index of greater than 1.50 measured at 589 nm and at 23±3°C in the fully hydrated state; an equilibrium water content of from 5% to 11% by weight at a temperature of from 16°C to 45°C; a glistening resistance characterized by having no bright field microvacuole and 10 or less microvacuoles per viewing screen in glistering tests; a Young's modulus of from 5.0 MPa to 35.0 MPa; and a 100% secant modulus of less than 5.0 MPa, wherein the ophthalmic device material is a polymerization product of a polymerizable composition which comprises from 18% to 32% by weight of N,N-dimethylacrylamide, at least one hydrophobic acrylamido component selected from the group consisting of N-butyl acrylamide, N-butoxymethyl acrylamide, and N-methoxypropyl acrylamide, from 40% to 76% by weight of said one or more aryl acrylic monomers of formula wherein A 1 is H or CH 3; B 1 is (CH 2) m1 or [O(CH 2) 2] z1 in which m1 is 2-6 and z1 is 1-10; Y 1 is a direct bond, O, S, or NR' in which R' is H, CH 3, C n' H 2n'+1 in which n'=1-10, iso-OC 3 H 7, C 6 H 5, or CH 2 C 6 H 5; W1 is 0-6, provided that m1+w1≤8; and D 1 is H, Cl, Br, C 1 -C 4 alkyl, C 1 -C 4 alkoxy, C 6 H 5, or CH 2 C 6 H 5, and from 0.4% to 2.5% by weight of at least one polymerizable crosslinking agent selected from the group consisting of ethylene glycol dimethacrylate, diethylene glycol dimethacrylate, triethylene glycol dimethacrylate, tetraethylene glycol dimethacrylate, allyl methacrylate, 1,3-propanediol dimethacrylate, 2,3-propanediol dimethacrylate, 1,6-hexanediol dimethacrylate, 1,4-butanediol dimethacrylate, ethylene glycol diacrylate, diethylene glycol diacrylate, triethylene glycol diacrylate, tetraethylene glycol diacrylate, allyl acrylate, 1,3-propanediol diacrylate, 2,3-propanediol diacrylate, 1,6-hexanediol diacrylate, 1,4-butanediol diacrylate, N,N'-hexamethylene bismethacrylamide, N,N'-dihydroxyethylene bisacrylamide, N,N'-dihydroxyethylene bismethacrylamide, N,N'-methylene bisacrylamide, and N,N'-methylene bismethacrylamide.
A wireless radio system comprising: a radio frequency receiver configured to provide a received signal strength indicator; and thresholding circuitry configured to: determine an interference-testing period of an ongoing communication frame when the wireless radio system is not communicating; sample the received signal strength indicator during the interference-testing period; compare the received signal strength indicator of each sample to a threshold value representative of radio interference; generate a bit stream based on the comparison, wherein if a received signal strength indicator sample exceeds the threshold value, the corresponding bit is set to a "1" in the bit stream and if a received signal strength indicator sample does not exceed the threshold value, the corresponding bit to a "0" in the bit stream; compare the generated bit stream to at least one radar signal signature; and determine that dynamic frequency selection operation is warranted when at least part of the bit stream matches the at least one radar signal signature and/or when the received signal strength indicator exceeds the threshold value. a radio frequency receiver configured to provide a received signal strength indicator; and thresholding circuitry configured to: determine an interference-testing period of an ongoing communication frame when the wireless radio system is not communicating; sample the received signal strength indicator during the interference-testing period; compare the received signal strength indicator of each sample to a threshold value representative of radio interference; generate a bit stream based on the comparison, wherein if a received signal strength indicator sample exceeds the threshold value, the corresponding bit is set to a "1" in the bit stream and if a received signal strength indicator sample does not exceed the threshold value, the corresponding bit to a "0" in the bit stream; compare the generated bit stream to at least one radar signal signature; and determine that dynamic frequency selection operation is warranted when at least part of the bit stream matches the at least one radar signal signature and/or when the received signal strength indicator exceeds the threshold value. determine an interference-testing period of an ongoing communication frame when the wireless radio system is not communicating; sample the received signal strength indicator during the interference-testing period; compare the received signal strength indicator of each sample to a threshold value representative of radio interference; generate a bit stream based on the comparison, wherein if a received signal strength indicator sample exceeds the threshold value, the corresponding bit is set to a "1" in the bit stream and if a received signal strength indicator sample does not exceed the threshold value, the corresponding bit to a "0" in the bit stream; compare the generated bit stream to at least one radar signal signature; and determine that dynamic frequency selection operation is warranted when at least part of the bit stream matches the at least one radar signal signature and/or when the received signal strength indicator exceeds the threshold value.
Use of a pipeline as a temperature control pipeline, in particular as a cooling pipeline, in motor vehicles, wherein a temperature control medium is guided through the pipeline, wherein the pipeline has the following layer structure from the outside in: - an outer layer comprised of at least one polyolefin, - a first adhesion promoting layer, - a barrier layer comprised of at least one polyamide, - a second adhesion promoting layer, - an inner layer comprised of at least one polyolefin, wherein the entire wall thickness of the pipeline measures 0.5 to 3.5 mm and wherein the outer layer consists of polyethylene or essentially of polyethylene or of polypropylene or essentially of polypropylene. - an outer layer comprised of at least one polyolefin, - a first adhesion promoting layer, - a barrier layer comprised of at least one polyamide, - a second adhesion promoting layer, - an inner layer comprised of at least one polyolefin, wherein the entire wall thickness of the pipeline measures 0.5 to 3.5 mm and wherein the outer layer consists of polyethylene or essentially of polyethylene or of polypropylene or essentially of polypropylene.
A patient support sling including: a back support portion; a seat support portion comprising side flanges (22, 24) and being connected to the back support portion; first and second back support straps connected to the back support portion; and third and fourth straps extending from the side flanges (22, 24) of the seat support portion, wherein the third and fourth straps are connectable to the first and second straps, and the seat support portion is foldable relative to the back support portion about at least one fold line (52, 54, 56), and wherein the seat support portion further comprises a central cut out in its lower surface, characterized in that the at least one fold line is provided as weakness line within the material of a sheet forming the back or the seat portions (12, 14) or in that the at least one fold line is a separate hinge element fixed to the back or the seat support portions (12, 14). a back support portion; a seat support portion comprising side flanges (22, 24) and being connected to the back support portion; first and second back support straps connected to the back support portion; and third and fourth straps extending from the side flanges (22, 24) of the seat support portion, wherein the third and fourth straps are connectable to the first and second straps, and the seat support portion is foldable relative to the back support portion about at least one fold line (52, 54, 56), and wherein the seat support portion further comprises a central cut out in its lower surface, characterized in that the at least one fold line is provided as weakness line within the material of a sheet forming the back or the seat portions (12, 14) or in that the at least one fold line is a separate hinge element fixed to the back or the seat support portions (12, 14).
An assembly for a turbomachine comprising a combustor, an outer casing (31,52) and a high pressure plenum, wherein the combustor is coupled to the outer casing (31, 52) and in fluid communication with the high pressure plenum within the outer casing (31, 52), the combustor comprising: a head end; a liner at least partially defining a hot gas path (32, 70) including a first combustion zone and a second combustion zone downstream of the first combustion zone; a flow sleeve circumferentially surrounding at least a portion of the liner, wherein the flow sleeve is spaced from the liner to form a cooling flow annulus therebetween, the cooling flow annulus in direct fluid communication with the high pressure plenum whereby air from the high pressure plenum flows into the cooling flow annulus and from the cooling flow annulus to the head end; and a plurality of fuel injectors in fluid communication with the second combustion zone, the plurality of fuel injectors configured to inject a mixture of fuel and air directly into the second combustion zone; wherein the plurality of fuel injectors is not in direct fluid communication with the high pressure plenum; wherein the combustor further comprises a flange disposed proximate the head end, wherein the flange is coupled to the outer casing (31, 52), characterized in that said flange defines at least one passage in fluid communication with the cooling flow annulus for directing a flow of air from cooling flow annulus to the plurality of fuel injectors. a head end; a liner at least partially defining a hot gas path (32, 70) including a first combustion zone and a second combustion zone downstream of the first combustion zone; a flow sleeve circumferentially surrounding at least a portion of the liner, wherein the flow sleeve is spaced from the liner to form a cooling flow annulus therebetween, the cooling flow annulus in direct fluid communication with the high pressure plenum whereby air from the high pressure plenum flows into the cooling flow annulus and from the cooling flow annulus to the head end; and a plurality of fuel injectors in fluid communication with the second combustion zone, the plurality of fuel injectors configured to inject a mixture of fuel and air directly into the second combustion zone; wherein the plurality of fuel injectors is not in direct fluid communication with the high pressure plenum; wherein the combustor further comprises a flange disposed proximate the head end, wherein the flange is coupled to the outer casing (31, 52), characterized in that said flange defines at least one passage in fluid communication with the cooling flow annulus for directing a flow of air from cooling flow annulus to the plurality of fuel injectors.
A laser processing method of irradiating a planar object to be processed, with laser light, so as to form a plurality of rows of modified regions (13 1, 13 2) to become a starting point for cutting aligning in a thickness direction of the object, within the object, along a line to cut the object; characterized in that the method irradiates the object with a reflected light component of the laser light, reflected by a predetermined surface opposing a laser light entrance surface where the laser light is incident on the object, so as to form one or more rows of modified regions including at least one row of the modified region (13 1) closest to the predetermined surface and the modified region (13 2) closest to the laser light entrance surface in the plurality of rows of modified regions.
A propeller fan comprising: a hub body including a shaft coupling portion; first and second hub blades (200, 300) extending spirally from the hub body; and first and second blades (400, 500) extending outward from the hub body and the hub blades (200, 300) and arranged to generate an airflow in an axial direction, wherein each of the first and second hub blades (200, 300) comprises a leading edge (210, 310), a trailing edge (230, 330) and connection portion (220, 320) configured to connect the leading edge (210, 310) of each hub blade (200, 300) with the trailing edge (230, 330) of each hub blade (200, 300), wherein the connection portion (220, 320) protrudes in the forward direction of a leading edge (430, 530) of each blade (400, 500) to prevent stress from being concentrated on one portion of the blade (400, 500), and wherein the leading edge of the first blade is connected to the trailing edge of the first hub blade and a trailing edge of the first blade is connected to the leading edge of the second hub blade. a hub body including a shaft coupling portion; first and second hub blades (200, 300) extending spirally from the hub body; and first and second blades (400, 500) extending outward from the hub body and the hub blades (200, 300) and arranged to generate an airflow in an axial direction, wherein each of the first and second hub blades (200, 300) comprises a leading edge (210, 310), a trailing edge (230, 330) and connection portion (220, 320) configured to connect the leading edge (210, 310) of each hub blade (200, 300) with the trailing edge (230, 330) of each hub blade (200, 300), wherein the connection portion (220, 320) protrudes in the forward direction of a leading edge (430, 530) of each blade (400, 500) to prevent stress from being concentrated on one portion of the blade (400, 500), and wherein the leading edge of the first blade is connected to the trailing edge of the first hub blade and a trailing edge of the first blade is connected to the leading edge of the second hub blade.
A method for establishing a trusted path between a user interface and a trusted executable, wherein the trusted path includes a hypervisor and a driver shim, comprising: measuring an identity of the hypervisor: comparing the measurement of the identity of the hypervisor with a policy for the hypervisor; measuring an identity of the driver shim; comparing the measurement of the identity of the driver shim with a policy for the driver shim; measuring an identity of the user interface; comparing the measurement of the identity of the user interface with a policy for the user interface; and providing a human-perceptible indication of whether the identity of the hypervisor, the identity of the driver shim, and the identity of the user interface correspond with the policy for the hypervisor, the policy for the driver shim, and the policy for the user interface, respectively. comparing the measurement of the identity of the hypervisor with a policy for the hypervisor; measuring an identity of the driver shim; comparing the measurement of the identity of the driver shim with a policy for the driver shim; measuring an identity of the user interface; comparing the measurement of the identity of the user interface with a policy for the user interface; and providing a human-perceptible indication of whether the identity of the hypervisor, the identity of the driver shim, and the identity of the user interface correspond with the policy for the hypervisor, the policy for the driver shim, and the policy for the user interface, respectively.