mhurhangee/ep-ind-claims huggingface dataset:
Process for the preparation of a compound of the formula: wherein R is an alkyl group having from 1 to 6 carbon atoms or a group of the formula -CH 2 -CH 2 -O-NO 2, or of mixtures of two or more such compounds, which comprises the reaction of a compound of the formula: wherein R' is an alkyl group having from 1 to 6 carbon atoms or a group of the formula -CH 2 -CH 2 -OH, or the reaction of corresponding mixtures of two or more such compounds, with nitric acid and then with a mixture of at least one acid anhydride and a chloride-containing catalyst in a continuous process, characterised in that the reactions are carried out at a pressure of from 2 bar above atmospheric pressure up to a pressure of 80 bar above atmospheric pressure. wherein R is an alkyl group having from 1 to 6 carbon atoms or a group of the formula -CH 2 -CH 2 -O-NO 2, or of mixtures of two or more such compounds, which comprises the reaction of a compound of the formula: wherein R' is an alkyl group having from 1 to 6 carbon atoms or a group of the formula -CH 2 -CH 2 -OH, or the reaction of corresponding mixtures of two or more such compounds, with nitric acid and then with a mixture of at least one acid anhydride and a chloride-containing catalyst in a continuous process, characterised in that the reactions are carried out at a pressure of from 2 bar above atmospheric pressure up to a pressure of 80 bar above atmospheric pressure.
A hand operated press, comprising: A) a base plate assembly having a first surface resting on a supporting surface and a substantially flat second surface opposite to said first surface, said base plate assembly including a peripheral edge and a first bearing structure mounted at a predetermined location along said peripheral edge and further including a second bearing structure mounted to said peripheral edge at a predetermined location opposite to said predetermined location; B) a moving plate assembly having substantially the same dimensions as said base plate assembly and being hingedly mounted to said first bearing structure and including a substantially flat third surface that is selectively brought in abutting contact with said second surface and said moving plate assembly including a distal edge; and C) an actuating arm assembly having first and second ends said first end being hingedly mounted to said second bearing structure, said arm assembly including a concave portion extending from said first end a predetermined distance towards said second end, the concave portion is selectively brought in cammingly contact with said moving plate assembly's distal end when the axes of said contacting arm assembly and said moving plate assembly are within an angular relationship range with the moving plate assembly's distal end is in contact with said concave portion. A) a base plate assembly having a first surface resting on a supporting surface and a substantially flat second surface opposite to said first surface, said base plate assembly including a peripheral edge and a first bearing structure mounted at a predetermined location along said peripheral edge and further including a second bearing structure mounted to said peripheral edge at a predetermined location opposite to said predetermined location; B) a moving plate assembly having substantially the same dimensions as said base plate assembly and being hingedly mounted to said first bearing structure and including a substantially flat third surface that is selectively brought in abutting contact with said second surface and said moving plate assembly including a distal edge; and C) an actuating arm assembly having first and second ends said first end being hingedly mounted to said second bearing structure, said arm assembly including a concave portion extending from said first end a predetermined distance towards said second end, the concave portion is selectively brought in cammingly contact with said moving plate assembly's distal end when the axes of said contacting arm assembly and said moving plate assembly are within an angular relationship range with the moving plate assembly's distal end is in contact with said concave portion.
A dispersible moist wipe comprising a nonwoven tissue web having regenerated fibers in an amount of 10 to 20 percent by weight and natural fibers in an amount of 80 to 90 percent by weight, wherein the regenerated fibers and the natural fibers are hydroentangled such that the web has a geometric mean tensile strength of at least 150 grams per inch (58 Nm) and a slosh-box break-up time of less than 155 minutes; wherein: the web has a formation value of at least 12; the regenerated fibers comprise at least one of lyocell fibers and rayon fibers, and have a fineness of from 1 to 3 deniers and a length of from 3 millimeters to 20 millimeters; the natural fibers comprise at least one of southern softwood kraft and cotton; and the web is formed from a liquid suspension containing from 0.02 to 0.08 percent fiber by weight; and wherein the geometric mean tensile strength, the slosh-box break-up time and the formation value are determined using the methods set out herein. the web has a formation value of at least 12; the regenerated fibers comprise at least one of lyocell fibers and rayon fibers, and have a fineness of from 1 to 3 deniers and a length of from 3 millimeters to 20 millimeters; the natural fibers comprise at least one of southern softwood kraft and cotton; and the web is formed from a liquid suspension containing from 0.02 to 0.08 percent fiber by weight;
A metal-ligand complex comprising the phosphaguanidine compound of formula I wherein R 1, R 5, R 6, and R 10 include the same or different moieties independently selected from hydride, aliphatic, heteroaliphatic, aromatic, and heteroaromatic moieties; R 2, R 3, R 7, and R 8 include the same or different moieties independently selected from aliphatic moieties, aromatic moieties, or heteroaromatic moieties; R 4 and R 9 are independently selected from a lone pair of electrons or a heteroatom; M is selected from titanium, zirconium, or hafnium; each X is independently selected from aliphatic moieties, aromatic moieties, NR N 2 moeities or halide moieties, wherein R N is selected from alkyl, aryl, or heteroaryl moieties; and each dotted line optionally defines a bridging connection. R 1, R 5, R 6, and R 10 include the same or different moieties independently selected from hydride, aliphatic, heteroaliphatic, aromatic, and heteroaromatic moieties; R 2, R 3, R 7, and R 8 include the same or different moieties independently selected from aliphatic moieties, aromatic moieties, or heteroaromatic moieties; R 4 and R 9 are independently selected from a lone pair of electrons or a heteroatom; M is selected from titanium, zirconium, or hafnium; each X is independently selected from aliphatic moieties, aromatic moieties, NR N 2 moeities or halide moieties, wherein R N is selected from alkyl, aryl, or heteroaryl moieties; and each dotted line optionally defines a bridging connection.
A process for the preparation of a minisuspoemulsion of submicron core/shell particles, wherein - the starting material is a minisuspoemulsion of a first disperse liquid phase I in a second continuous liquid phase II, which - comprises, in the first disperse liquid phase I, submicron particles of a solid C forming the core, and - a precursor substance PS for the shell dissolved in molecularly disperse form and optionally a reactant R, and wherein - the submicron core/shell particles CS are prepared in the first disperse liquid phase I of the minisuspoemulsion by chemical or physical conversion of the precursor substance PS for the shell. - the starting material is a minisuspoemulsion of a first disperse liquid phase I in a second continuous liquid phase II, which - comprises, in the first disperse liquid phase I, submicron particles of a solid C forming the core, and - a precursor substance PS for the shell dissolved in molecularly disperse form and optionally a reactant R, and wherein - the submicron core/shell particles CS are prepared in the first disperse liquid phase I of the minisuspoemulsion by chemical or physical conversion of the precursor substance PS for the shell.
A strain gauge (1, 1A) comprising: a substrate formed of resin and having flexibility; and a resistor, characterized by further comprising: a functional layer formed from a metal, an alloy, or a metal compound, directly on one surface of the substrate, wherein the resistor is formed as a film containing Cr, CrN, and Cr 2 N into which an element contained in the functional layer is diffused, on one surface of the functional layer, wherein a first substance having a function of preventing crystal grains as a main component of the resistor from cohering, is added to the resistor, and wherein the functional layer includes a material that promotes crystal growth of the resistor, the crystal growth causing the film formed with the main component of the resistor to be deposited. a substrate formed of resin and having flexibility; and a resistor, characterized by further comprising: a functional layer formed from a metal, an alloy, or a metal compound, directly on one surface of the substrate, wherein the resistor is formed as a film containing Cr, CrN, and Cr 2 N into which an element contained in the functional layer is diffused, on one surface of the functional layer, wherein a first substance having a function of preventing crystal grains as a main component of the resistor from cohering, is added to the resistor, and wherein the functional layer includes a material that promotes crystal growth of the resistor, the crystal growth causing the film formed with the main component of the resistor to be deposited. a functional layer formed from a metal, an alloy, or a metal compound, directly on one surface of the substrate, wherein the resistor is formed as a film containing Cr, CrN, and Cr 2 N into which an element contained in the functional layer is diffused, on one surface of the functional layer, wherein a first substance having a function of preventing crystal grains as a main component of the resistor from cohering, is added to the resistor, and wherein the functional layer includes a material that promotes crystal growth of the resistor, the crystal growth causing the film formed with the main component of the resistor to be deposited.
A method for the software of a computer onboard a vehicle to take configuration parameters into account, according to which, after a computer initialization phase, said parameters are written in a volatile memory, said method being characterized in that said parameters are copied in a non-volatile memory during a power-latch phase which follows the cut-off of the electrical supply of the vehicle, and in that after reception of said configuration parameters by the volatile memory, a request is sent to the computer instructing it to restart, taking into account said parameters recorded in its volatile memory, and the computer takes said parameters into account immediately after the execution of said request.
A control circuit (10; 10') for a brake (11; 11') of a trailer for a tractor-trailer combination, the trailer including at least one brake (11;11') that is controllable from the tractor, the at least one brake (11;11') being of the spring applied fluid release type having a spring biasing the at least one brake (11; 11') to an applied condition, said control circuit (10; 10') comprising a control fluid line (23; 23') providing fluid pressure acting on the at least one brake (11; 11') to drive it to an applied condition; and a supplementary fluid line (22; 22') providing fluid pressure acting on said at least one brake (11; 11') to oppose the action of the control fluid line (23; 23') and thereby biasing the said at least one brake (11; 11') to an off condition, the pressure of fluid in the control fluid line (23; 23') being modulated in dependence on operation of at least one control member (12, 13, 14) of the tractor and the supplementary fluid line (22; 22') applying a constant fluid pressure in opposition to the action of the fluid pressure in the control fluid line (23; 23'), said control circuit (10; 10') further including one or more failure-safety valves (33; 33') being configured to cause venting of fluid pressure in the supplementary fluid line (22; 22') thereby causing the spring to apply said at least one brake (11; 11'), when the fluid pressure in the control fluid line (23; 23') is below a threshold. a control fluid line (23; 23') providing fluid pressure acting on the at least one brake (11; 11') to drive it to an applied condition; and a supplementary fluid line (22; 22') providing fluid pressure acting on said at least one brake (11; 11') to oppose the action of the control fluid line (23; 23') and thereby biasing the said at least one brake (11; 11') to an off condition,
A method for providing secure gatekeeping of a communication from a remote internet-based website having an Internet Protocol, IP, address to a specific implantable biomedical device, the method comprising: receiving a time of first power up during a pairing operation with the specific implantable biomedical device; advancing, by a running timer, a count every minute following the time of first power up; receiving, by a gatekeeping device, the communication transmitted by the remote internet-based website having a secret IP-address only associated with the specific implantable biomedical device, wherein the communication received is encoded using a first encoding algorithm; decoding, by the gatekeeping device, the communication received; encoding, by the gatekeeping device, the communication decoded using a second encoding algorithm, wherein the communication is encoded using a secret encryption method that is based on the count of the running timer; wirelessly relaying, by the gatekeeping device, the communication encoded using the second encoding algorithm to the specific implantable biomedical device. receiving a time of first power up during a pairing operation with the specific implantable biomedical device; advancing, by a running timer, a count every minute following the time of first power up; receiving, by a gatekeeping device, the communication transmitted by the remote internet-based website having a secret IP-address only associated with the specific implantable biomedical device, wherein the communication received is encoded using a first encoding algorithm; decoding, by the gatekeeping device, the communication received; encoding, by the gatekeeping device, the communication decoded using a second encoding algorithm, wherein the communication is encoded using a secret encryption method that is based on the count of the running timer; wirelessly relaying, by the gatekeeping device, the communication encoded using the second encoding algorithm to the specific implantable biomedical device.
Gripper (2; 170) for an apparatus (50; 108; 117; 124; 127; 136; 141; 190) for forming and/or laminating a film element, in particular for a draping frame, having at least two opposing gripper-jaw elements (26, 27; 175, 176), which are movable in relation to one another and are intended for gripping the film element, wherein the gripper (2; 170) has folding-over means for folding over a film edge around an edge of a carrier part, which is laminated with the film element.
A computer-implemented method of detecting and analyzing faults in a three phase feeder system having a first cable and one or more other cables (20b, 20c), the method comprising: determining current magnitude in the first cable; comparing the current magnitude to a threshold level; if the current magnitude exceeds the threshold level, measuring how long the current magnitude stays above the threshold level; and characterized in that it comprises: if the current magnitude stays above the threshold level for a duration that falls within a predetermined duration range, starting a timer; after the timer measures a predetermined time interval, determining whether a fault is detected in the one or more other cables (20b, 20c); and if a fault is not detected in the one or more other cables (20b, 20c), then determining that a single phase fault has occurred in the feeder system. determining current magnitude in the first cable; comparing the current magnitude to a threshold level; if the current magnitude exceeds the threshold level, measuring how long the current magnitude stays above the threshold level; if the current magnitude stays above the threshold level for a duration that falls within a predetermined duration range, starting a timer; after the timer measures a predetermined time interval, determining whether a fault is detected in the one or more other cables (20b, 20c); and if a fault is not detected in the one or more other cables (20b, 20c), then determining that a single phase fault has occurred in the feeder system.
A non-crystalline Compound, characterized in that the Compound comprises a diamandoid core-structure containing at least one atom of at least one chemical element, chosen from the list comprising Si, Ge, Sn, Pb, O, S, Se, Te, whereby the atoms forming the diamandoid core-structure are chosen independently from each other and may or may not carry substituents, the non-crystalline Compound exhibiting a molecular structure according to Formula I, whereat - the atoms M are independently from each other chosen from the list comprising Si, Ge, Sn, Pb and - atoms X are independently from each other chosen from the list comprising O, S, Se, Te and - the substituents R are independently from each other chosen from the list comprising Phenyl, Benzyl, Styryl; aromatic polycyclic substituents, for example Naphthyl, Anthryl, Phenanthryl; heteroaromatic monocyclic substituents, for example Pyridyl; heteroaromatic polycyclic substituents, for example aza-Naphthyl, aza-Anthryl, aza-Phenanthryl, diaza-Naphthyl, diaza-Anthryl, diaza-Phenanthryl, whereat a compound comprising either Ge or Sn in combination with S does not comprise the substituent p-Styryl, whereat a compound comprising either Si or Sn in combination with S does not comprise the substituent Phenyl. - the atoms M are independently from each other chosen from the list comprising Si, Ge, Sn, Pb and - atoms X are independently from each other chosen from the list comprising O, S, Se, Te and - the substituents R are independently from each other chosen from the list comprising Phenyl, Benzyl, Styryl; aromatic polycyclic substituents, for example Naphthyl, Anthryl, Phenanthryl; heteroaromatic monocyclic substituents, for example Pyridyl; heteroaromatic polycyclic substituents, for example aza-Naphthyl, aza-Anthryl, aza-Phenanthryl, diaza-Naphthyl, diaza-Anthryl, diaza-Phenanthryl,
A storage device comprising: a nonvolatile memory device; and a controller configured to partition a storage space of the nonvolatile memory device into a plurality of zones (Z1, Z2, Zm), and access the storage space, wherein each of the plurality of zones (Z1, Z2, Zm) corresponds to consecutive physical addresses of the nonvolatile memory device, wherein the controller is configured to map the consecutive physical addresses of each of the plurality of zones (Z1, Z2, Zm) onto consecutive logical addresses, wherein, in response to a copy command being received from an external host device, the controller is configured to start a copy operation for copying data of a first zone of the plurality of zones (Z1, Z2, Zm) to a second zone of the plurality of zones (Z1, Z2, Zm) and send first read commands and first write commands to the nonvolatile memory device, wherein, in response to a suspend command being received from the external host device before the copy operation is completed, the controller is configured to suspend the copy operation, store progress status information about the copy operation, and send a suspend response to the external host device, and wherein, in response to a second read command being received from the external host device, the controller is configured to send a third read command to the nonvolatile memory device to perform a read operation, send a read response including data read by the read operation to the external host device, and resume the suspended copy operation. a nonvolatile memory device; and a controller configured to partition a storage space of the nonvolatile memory device into a plurality of zones (Z1, Z2, Zm), and access the storage space, partition a storage space of the nonvolatile memory device into a plurality of zones (Z1, Z2, Zm), and access the storage space, wherein each of the plurality of zones (Z1, Z2, Zm) corresponds to consecutive physical addresses of the nonvolatile memory device, wherein the controller is configured to map the consecutive physical addresses of each of the plurality of zones (Z1, Z2, Zm) onto consecutive logical addresses, wherein, in response to a copy command being received from an external host device, the controller is configured to start a copy operation for copying data of a first zone of the plurality of zones (Z1, Z2, Zm) to a second zone of the plurality of zones (Z1, Z2, Zm) and send first read commands and first write commands to the nonvolatile memory device, wherein, in response to a suspend command being received from the external host device before the copy operation is completed, the controller is configured to suspend the copy operation, store progress status information about the copy operation, and send a suspend response to the external host device, and wherein, in response to a second read command being received from the external host device, the controller is configured to send a third read command to the nonvolatile memory device to perform a read operation, send a read response including data read by the read operation to the external host device, and resume the suspended copy operation.
A bitumen recovery process comprising the step of treating oil sands with a glycol ether amine wherein the treatment is to oil sands recovered by surface mining or in situ production, wherein the glycol ether amine is described by the following structure: R-(OC 2 H 4) x -NH 2 or R-(OCH 2 CH(CH 3)) y - NH 2 wherein R is a C 1 to C 6 alkyl group or a phenyl group and x and y independently are 1 to 3. wherein R is a C 1 to C 6 alkyl group or a phenyl group and x and y independently are 1 to 3.
A method for highlighting a vehicle in an image being provided by a rearview camera of a digital rearview system, comprising: - receiving an image of a traffic situation comprising a frontal view of the vehicle, - recognizing at least one headlight (34a, 34b) of the vehicle in the image, - determining whether the at least one headlight (34a, 34b) is lit up, - accentuating an image portion of the image, wherein the image portion represents the at least one headlight (34a, 34b) and providing the image including the accentuated image portion to a display device, if it is determined that the at least one headlight (34a, 34b) is not lit up, or terminating the method if it is determined that the at least one headlight (34a, 34b) is lit up. - receiving an image of a traffic situation comprising a frontal view of the vehicle, - recognizing at least one headlight (34a, 34b) of the vehicle in the image, - determining whether the at least one headlight (34a, 34b) is lit up, - accentuating an image portion of the image, wherein the image portion represents the at least one headlight (34a, 34b) and providing the image including the accentuated image portion to a display device, if it is determined that the at least one headlight (34a, 34b) is not lit up, or terminating the method if it is determined that the at least one headlight (34a, 34b) is lit up.