mhurhangee/ep-ind-claims huggingface dataset:
A method of automatically provisioning a network device to communicate with a network, the method comprising: attaching a bridging device to the network device, wherein the bridging device forms an ad hoc network wirelessly connecting the bridging device to a handheld computing device; wirelessly transmitting information about the network device from the bridging device to the handheld computing device; identifying a second network, different from the ad hoc network on the handheld computing device; and transmitting an identifier of the identified second network and the information about the network device from the handheld computing device to a cloud computing environment; generating provisioning information in the cloud computing environment for the network device so that the network device can connect to the second network; transmitting the provisioning information from the handheld computing device to the network device; provisioning the network device with the provisioning information; and removing the bridging device from the network device, wherein the network device is enabled to communicate with the cloud computing environment through the identified second network directly. attaching a bridging device to the network device, wherein the bridging device forms an ad hoc network wirelessly connecting the bridging device to a handheld computing device; wirelessly transmitting information about the network device from the bridging device to the handheld computing device; identifying a second network, different from the ad hoc network on the handheld computing device; and transmitting an identifier of the identified second network and the information about the network device from the handheld computing device to a cloud computing environment; generating provisioning information in the cloud computing environment for the network device so that the network device can connect to the second network; transmitting the provisioning information from the handheld computing device to the network device; provisioning the network device with the provisioning information; and removing the bridging device from the network device, wherein the network device is enabled to communicate with the cloud computing environment through the identified second network directly.
Austenitic stainless steel consisting of: in mass percent, C: at most 0.050%; Si: 0.01 to 1.00%; Mn: 1.75 to 2.50%; P: at most 0.050%; S: at most 0.0100%; Ni: 20.00 to 24.00%; Cr: 23.00 to 27.00%; Mo: 1.80 to 3.20%; and N: 0.130 to 0.180%, optionally at least one type selected from a group consisting of Ca: at most 0.0100%; Mg: at most 0.0100%; and rare earth metal: at most 0.200%, the balance being Fe and impurities, wherein a grain size number of crystal grains based on JIS G0551 is at least 6.0, and an area fraction of a σ phase is at most 0.1%, and, yield strength at 230°C is at least 220 MPa, and a corrosion rate in a 65% nitric acid corrosion test in conformity with JIS G0573 is at most 0.085 g/m 2 /h, the yield strength being defined as 0.2% yield stress. C: at most 0.050%; Si: 0.01 to 1.00%; Mn: 1.75 to 2.50%; P: at most 0.050%; S: at most 0.0100%; Ni: 20.00 to 24.00%; Cr: 23.00 to 27.00%; Mo: 1.80 to 3.20%; and N: 0.130 to 0.180%, optionally at least one type selected from a group consisting of Ca: at most 0.0100%; Mg: at most 0.0100%; and rare earth metal: at most 0.200%,
Device for controlling the trajectory of a vehicle, comprising at least one input (43, 44) for receiving at least one quantity representative of one or more deviations (ψ L, y L) between a reference trajectory and an actual trajectory of the vehicle, and at least one output for producing in real time at least one lock angle setpoint (δ r *) applicable to at least one rear wheel of the vehicle so as to keep said vehicle on and/or return it to its reference trajectory, characterized in that it comprises: - at least one module for generating in real time at least one stabilizing correction (δ 0 *) varying linearly with respect to each deviation (ψ L, y L) received with a proportionality coefficient (k ψ, k y) quantified off-line so as to optimize the manner of varying the stabilizing correction (δ 0 *); - at least one supervision module parameterized off-line to generate a weighting coefficient (μ) associated in real time with a context of operation of the vehicle; and - at least one setting module designed to obtain said lock angle setpoint (δ r *) by multiplying said stabilizing correction (δ o *) by said weighting coefficient (μ) in real time. - at least one module for generating in real time at least one stabilizing correction (δ 0 *) varying linearly with respect to each deviation (ψ L, y L) received with a proportionality coefficient (k ψ, k y) quantified off-line so as to optimize the manner of varying the stabilizing correction (δ 0 *); - at least one supervision module parameterized off-line to generate a weighting coefficient (μ) associated in real time with a context of operation of the vehicle; and - at least one setting module designed to obtain said lock angle setpoint (δ r *) by multiplying said stabilizing correction (δ o *) by said weighting coefficient (μ) in real time.
A waste system, comprising: a vacuum cell; a flexible waste container with at least one flexible membrane at an interface between the flexible waste container and the vacuum cell; a vacuum source configured to suction air out of the vacuum cell to generate a negative pressure in the vacuum cell, wherein the negative pressure acts on the flexible waste container to generate a second negative pressure in the flexible waste container, and the second negative pressure acts on an interface between a toilet and the flexible waste container to pull waste from the toilet into the flexible waste container; and a vacuum valve between the vacuum cell and the vacuum source, the vacuum valve configured to open when the vacuum source is suctioning air out of the vacuum cell and configured to close after the vacuum source has suctioned air out of the vacuum cell, characterized in that said waste system further comprises: a discharge valve between the vacuum source and a discharge vent, the discharge valve configured to open after closing the vacuum valve so that at least a portion of the air suctioned out of the vacuum cell is discharged through the discharge vent. a vacuum cell; a flexible waste container with at least one flexible membrane at an interface between the flexible waste container and the vacuum cell; a vacuum source configured to suction air out of the vacuum cell to generate a negative pressure in the vacuum cell, wherein the negative pressure acts on the flexible waste container to generate a second negative pressure in the flexible waste container, and the second negative pressure acts on an interface between a toilet and the flexible waste container to pull waste from the toilet into the flexible waste container; and a vacuum valve between the vacuum cell and the vacuum source, the vacuum valve configured to open when the vacuum source is suctioning air out of the vacuum cell and configured to close after the vacuum source has suctioned air out of the vacuum cell, characterized in that said waste system further comprises: a discharge valve between the vacuum source and a discharge vent, the discharge valve configured to open after closing the vacuum valve so that at least a portion of the air suctioned out of the vacuum cell is discharged through the discharge vent.
A lithographic printing ink comprising from 15 to 60 wt% of a non-aqueous dispersion of an acrylic core/shell polymer, the NAD comprising: - an acrylic shell polymer; - an acrylic core polymer; - a continuous phase of an essentially non-aqueous solvent; and - a rheology adjusting component that contains a C 1 -C 6 alcohol; a metal hydroxide; an alkyl amine; and/or a primary amine, secondary amine, tertiary amine or a combination thereof. - an acrylic shell polymer; - an acrylic core polymer; - a continuous phase of an essentially non-aqueous solvent; and - a rheology adjusting component that contains a C 1 -C 6 alcohol; a metal hydroxide; an alkyl amine; and/or a primary amine, secondary amine, tertiary amine or a combination thereof.
Foam part (5, 105, 205, 305), in particular for a vehicle seat, having a first foam tier (11, 111, 211, 311) which faces a user, and a second foam tier (21, 221) which faces away from the user, wherein the first foam tier (11, 111, 211, 311) has a hardness and/or density which is different from the second foam tier (21, 221), characterized in that the first foam tier (11, 111, 211, 311) has a plurality of comfort tubes (50, 150, 250, 350) which face the user, wherein at least one of the comfort tubes (50, 150, 250, 350) has a hole (55, 155, 255, 355).
A carrier system for fixing at least one testing device and/or cleaning device and/or repairing device on a support structure underneath and/or above a water surface of a body of water, comprising - a carriage carrier chain, which can be arranged circumferentially around the support structure and has a plurality of chain elements which can be connected to one another, characterized by - a plurality of cable winches to be arranged circumferentially around the support structure and fixed to at least some of the chain elements, wherein the carriage carrier chain can be positioned by means of the cable winches on the support structure at a predeterminable vertical height with respect to the water surface, wherein at least some of the chain elements have cavities, which can be flooded and pumped out, such that the carriage carrier chain has positive buoyance in water when the cavities are pumped out and negative buoyance when the cavities are flooded. - a carriage carrier chain, which can be arranged circumferentially around the support structure and has a plurality of chain elements which can be connected to one another, characterized by - a plurality of cable winches to be arranged circumferentially around the support structure and fixed to at least some of the chain elements, wherein the carriage carrier chain can be positioned by means of the cable winches on the support structure at a predeterminable vertical height with respect to the water surface, wherein at least some of the chain elements have cavities, which can be flooded and pumped out, such that the carriage carrier chain has positive buoyance in water when the cavities are pumped out and negative buoyance when the cavities are flooded.
A composition, comprising: a copolymer comprising constitutional units formed from two or more monomers, the two or more monomers comprising a first monomer, which is 1-dodecene, and a second monomer, which is an α-ester-alk-ω-ene molecule; where the copolymer has a kinematic viscosity at 100 °C of 30 to 50 centistokes. a copolymer comprising constitutional units formed from two or more monomers, the two or more monomers comprising a first monomer, which is 1-dodecene, and a second monomer, which is an α-ester-alk-ω-ene molecule; a first monomer, which is 1-dodecene, and a second monomer, which is an α-ester-alk-ω-ene molecule; where the copolymer has a kinematic viscosity at 100 °C of 30 to 50 centistokes.
A slurry polymerization method for producing a very-high or ultra-high molecular weight polyethylene composition, the method comprising contacting one or more monomers with a supported catalyst, the supported catalyst comprising: a support, a metal-ligand complex deposited on the support at a loading of from about 1 μmol/gram of supported catalyst to about 100 μmol/gram of supported catalyst, the metal-ligand complex characterized by the general formula: wherein at least two of the bonds from the oxygens to M are covalent, with the other bonds being dative; AR is an aromatic group that can be the same or different from the other AR groups with each AR being independently selected from the group consisting of optionally substituted aryl and optionally substituted heteroaryl; B is a bridging group having from 3 to 50 atoms not counting hydrogen atoms and is selected from the group consisting of optionally substituted divalent hydrocarbyl and optionally substituted divalent heteroatom-containing hydrocarbyl; M is a metal selected from the group consisting of Hf and Zr; each L is independently a moiety that forms a covalent dative or ionic bond with M; and n' is 1, 2, 3 or 4; and, an activator. a support, a metal-ligand complex deposited on the support at a loading of from about 1 μmol/gram of supported catalyst to about 100 μmol/gram of supported catalyst, the metal-ligand complex characterized by the general formula: wherein at least two of the bonds from the oxygens to M are covalent, with the other bonds being dative; AR is an aromatic group that can be the same or different from the other AR groups with each AR being independently selected from the group consisting of optionally substituted aryl and optionally substituted heteroaryl; B is a bridging group having from 3 to 50 atoms not counting hydrogen atoms and is selected from the group consisting of optionally substituted divalent hydrocarbyl and optionally substituted divalent heteroatom-containing hydrocarbyl; M is a metal selected from the group consisting of Hf and Zr; each L is independently a moiety that forms a covalent dative or ionic bond with M; and n' is 1, 2, 3 or 4; and, an activator.
An everter system for performing microvascular anastomosis comprising: a coupler ring comprising a plurality of coupler pins; and an everter device comprising an elongate main body having an everter end and an eversion surface at the everter end, the eversion surface formed of a pierceable material permitting penetration by the coupler pins when everting a portion of a vessel. a coupler ring comprising a plurality of coupler pins; and an everter device comprising an elongate main body having an everter end and an eversion surface at the everter end, the eversion surface formed of a pierceable material permitting penetration by the coupler pins when everting a portion of a vessel.
A method for determining a temperature of a physical environment around a wearable device, comprising: obtaining a sensed temperature from a sensor indicating an internal temperature inside the wearable device, the sensor being in a mounted mode where the sensor is thermally radiated by the physical environment and a constant temperature object wearing the wearable device; determining, based on sensed temperature measurements from the sensor, a temperature change rate of the sensor and at least one affecting factor that affects temperature sensing of the sensor, wherein the at least one affecting factor comprises a first affecting factor A, a second affecting factor B and a third affecting factor C, the affecting factors A, B and C being constants; and determining the temperature of the physical environment based on the sensed temperature, the temperature change rate and the affecting factors A, B and C; wheren the temperature of the physical environment is determined by T env = A ⋅ dT NTC dt + B ⋅ T NTC + C wherein T env denotes is environmental temperature, T NTC is the temperature of the sensor, A denotes the first affecting factor that affects the temperature change rate, B denotes the second affecting factor that affects the sensed temperature, and C denotes the third affecting factor that affects an intermediate temperature determined based on the sensed temperature and the temperature change rate. obtaining a sensed temperature from a sensor indicating an internal temperature inside the wearable device, the sensor being in a mounted mode where the sensor is thermally radiated by the physical environment and a constant temperature object wearing the wearable device; determining, based on sensed temperature measurements from the sensor, a temperature change rate of the sensor and at least one affecting factor that affects temperature sensing of the sensor, wherein the at least one affecting factor comprises a first affecting factor A, a second affecting factor B and a third affecting factor C, the affecting factors A, B and C being constants; and determining the temperature of the physical environment based on the sensed temperature, the temperature change rate and the affecting factors A, B and C; wheren the temperature of the physical environment is determined by T env = A ⋅ dT NTC dt + B ⋅ T NTC + C wherein T env denotes is environmental temperature, T NTC is the temperature of the sensor, A denotes the first affecting factor that affects the temperature change rate, B denotes the second affecting factor that affects the sensed temperature, and C denotes the third affecting factor that affects an intermediate temperature determined based on the sensed temperature and the temperature change rate.
Brake disc for motor vehicles and/or utility vehicles with a friction ring, consisting of a friction strip pair (11a; 11b), connected to one another through ribs, with a pot and with expansion elements arranged radially on the pot, connected to the friction ring on their end facing away from the pot, and of which at least some expansion elements respectively form at least partially one rib for connection of the friction strip pair (11 a; 11b). characterized in that at least some of said rib-forming expansion elements are each formed by one insert, that said two frontal connections between the inserts and the respective friction strip (11 a; 11 b) are made by casting and that the inserts are made from a different material compared to the cast friction strip pair (11a; 11b).
A sliding subsea foundation comprising a polymeric shoe layer, wherein the shoe layer defines a soil-engaging face that comprises an array of substantially parallel elongate grooves.
Switchgear arrangement having an interrupter unit comprising a first switching contact piece (7, 9) and a second switching contact piece (8, 10), which are movable relative to one another, and comprising an arcing gas channel, which develops in an arc gap which can be formed between the switching contact pieces (7, 8, 9, 10), which arcing gas channel passes through the interrupter unit and connects the arc gap to the surrounding environment of the interrupter unit and is at least sectionally delimited by mutually encompassing elements in the manner of a ring channel, wherein a first body, clamped in at one end in the manner of a pipe connection piece, as one element protrudes with a free end towards the arc gap, characterized in that the first body has, on the lateral surface side, at least one cutout covered by a sheath in the radial direction.
A method of preparing polyalkylsilsesquioxane particulates comprising the following steps: a first step of preparing an alkylsilanetriol represented by Chemical Formula 2 or a partial hydrolysate thereof by hydrolyzing an alkyltrialkoxysilane represented by Chemical Formula 1; a second step of preparing polyalkylsilsesquioxane particulates having silanol groups on their surface by polycondensing the alkylsilanetriol or the partial hydrolysate thereof; and a third step of end-capping the silanol groups with alkyl groups by adding an alkoxytrialkylsilane selected from the group consisting of the compounds represented by Chemical Formula 3 into a suspension of the polyalkylsilsesquioxane particulates having the silanol groups on their surface, to obtain the polyalkylsilsesquioxane particulates by end-capping the silanol groups with alkyl groups, Chemical Formula 1 R-Si-(OR 1) 3 Chemical Formula 2 R-Si- 3 Chemical Formula 3 R 2 O-Si-(R 3) 3 wherein R and R 3 are respectively a non-hydrolyzable group, which is a C 1 -C 20 alkyl group, a C 1 -C 20 alkyl group having a (meth)acryloyloxy group or an epoxy group, a C 2 -C 20 alkenyl group, a C 6 -C 20 aryl group, or a C 7 -C 20 aralkyl group, and OR 1 and OR 2 are respectively a hydrolysable group, in which R 1 and R 2 are respectively a C 1 -C 6 alkyl group. a first step of preparing an alkylsilanetriol represented by Chemical Formula 2 or a partial hydrolysate thereof by hydrolyzing an alkyltrialkoxysilane represented by Chemical Formula 1; a second step of preparing polyalkylsilsesquioxane particulates having silanol groups on their surface by polycondensing the alkylsilanetriol or the partial hydrolysate thereof; and a third step of end-capping the silanol groups with alkyl groups by adding an alkoxytrialkylsilane selected from the group consisting of the compounds represented by Chemical Formula 3 into a suspension of the polyalkylsilsesquioxane particulates having the silanol groups on their surface, to obtain the polyalkylsilsesquioxane particulates by end-capping the silanol groups with alkyl groups, Chemical Formula 1 R-Si-(OR 1) 3 Chemical Formula 2 R-Si- 3 Chemical Formula 3 R 2 O-Si-(R 3) 3 wherein R and R 3 are respectively a non-hydrolyzable group, which is a C 1 -C 20 alkyl group, a C 1 -C 20 alkyl group having a (meth)acryloyloxy group or an epoxy group, a C 2 -C 20 alkenyl group, a C 6 -C 20 aryl group, or a C 7 -C 20 aralkyl group, and OR 1 and OR 2 are respectively a hydrolysable group, in which R 1 and R 2 are respectively a C 1 -C 6 alkyl group. R and R 3 are respectively a non-hydrolyzable group, which is a C 1 -C 20 alkyl group, a C 1 -C 20 alkyl group having a (meth)acryloyloxy group or an epoxy group, a C 2 -C 20 alkenyl group, a C 6 -C 20 aryl group, or a C 7 -C 20 aralkyl group, and OR 1 and OR 2 are respectively a hydrolysable group, in which R 1 and R 2 are respectively a C 1 -C 6 alkyl group.
A method for determining a deviation of a spatial orientation of a beam axis of a beam processing machine from a spatial nominal orientation of the beam axis, the beam processing machine having an axis of rotation (B, C) to be calibrated and a measuring device, the method comprising the following step: cutting contour sections (KA1, KB2) with a processing beam into a test workpiece, characterized in that the contour sections (KA1, KB2) are cut from two sides into a test workpiece, wherein the contour sections (KA1, KB2) extend parallel to a nominal orientation of the rotation axis (B, C) to be calibrated, and that the method further comprises the following steps detecting the contour sections (KA1, KA2) with the measuring device from one side of the test workpiece to determine the spatial position of the contour sections (KA1, KB1), and determining the deviation of the spatial orientation of the beam axis of the beam processing machine from the spatial nominal orientation based on the spatial positions of the contour sections (KA1, KB1) in comparison with nominal position values assigned to a cutting during the nominal orientation. cutting contour sections (KA1, KB2) with a processing beam into a test workpiece, characterized in that the contour sections (KA1, KB2) are cut from two sides into a test workpiece, wherein the contour sections (KA1, KB2) extend parallel to a nominal orientation of the rotation axis (B, C) to be calibrated, and that the method further comprises the following steps detecting the contour sections (KA1, KA2) with the measuring device from one side of the test workpiece to determine the spatial position of the contour sections (KA1, KB1), and determining the deviation of the spatial orientation of the beam axis of the beam processing machine from the spatial nominal orientation based on the spatial positions of the contour sections (KA1, KB1) in comparison with nominal position values assigned to a cutting during the nominal orientation.