mhurhangee/ep-ind-claims huggingface dataset:
A compound of formula I, or a pharmaceutically acceptable salt thereof, wherein: R 1 is (CH 2) m NR 11 R 12; R 2 is selected from H, halo, OR 13, NHR 13, alkyl, alkenyl and alkynyl; R 3 is selected from alkyl, NHCO 2 R 4, NHCONR 5 R 6, NHCONH-alkyl, NHCOR 7, NH(CH 2) n -aryl, (CH 2) p -heteroaryl and (CH 2) q CO 2 R 3,, wherein each alkyl, alkenyl, aryl or heteroaryl moiety in the aforementioned list is optionally further substituted by one or more groups selected from alkyl, halo, OH, NH 2, alkoxy, aryloxy, alkylamino, arylamino, carboxyl and carboxamide; R 4 to R 8 and R 13 are each independently selected from alkyl, alkenyl and aryl; R 11 and R 12 are each independently selected from alkyl and alkenyl; or R 11 and R 12- are linked together with the nitrogen to which they are attached to form a heterocycloalkyl or heterocycloalkenyl group; n, m, p and q are each independently selected from 0, 1, and 2. R 1 is (CH 2) m NR 11 R 12; R 2 is selected from H, halo, OR 13, NHR 13, alkyl, alkenyl and alkynyl; R 3 is selected from alkyl, NHCO 2 R 4, NHCONR 5 R 6, NHCONH-alkyl, NHCOR 7, NH(CH 2) n -aryl, (CH 2) p -heteroaryl and (CH 2) q CO 2 R 3,, wherein each alkyl, alkenyl, aryl or heteroaryl moiety in the aforementioned list is optionally further substituted by one or more groups selected from alkyl, halo, OH, NH 2, alkoxy, aryloxy, alkylamino, arylamino, carboxyl and carboxamide; R 4 to R 8 and R 13 are each independently selected from alkyl, alkenyl and aryl; R 11 and R 12 are each independently selected from alkyl and alkenyl; or R 11 and R 12- are linked together with the nitrogen to which they are attached to form a heterocycloalkyl or heterocycloalkenyl group; n, m, p and q are each independently selected from 0, 1, and 2.
A method of encoding stereoscopic images, comprising the steps of: receiving a stereoscopic pair of images; combining the images into an image pattern; evaluating at least one of the encoding tools in an encoding process for regions of the image pattern by determining an amount of disparity of regions in the image, wherein the amount of disparity comprises at least one of an amount of estimated motion in corresponding regions of the images, and an amount of illumination change in corresponding regions of the images; and applying the at least one of the encoding tools in an encoding process for regions of the image pattern based on the determined amount of disparity when the regions include an amount of disparity in the represented images of the same frame that is below a disparity threshold, and disabling the at least one of the encoding tools when the amount of disparity exceeds the disparity threshold, wherein the at least one of the encoding tools is a deblocking filter and/or a sub-sample motion compensation filter. receiving a stereoscopic pair of images; combining the images into an image pattern; evaluating at least one of the encoding tools in an encoding process for regions of the image pattern by determining an amount of disparity of regions in the image, wherein the amount of disparity comprises at least one of an amount of estimated motion in corresponding regions of the images, and an amount of illumination change in corresponding regions of the images; and applying the at least one of the encoding tools in an encoding process for regions of the image pattern based on the determined amount of disparity when the regions include an amount of disparity in the represented images of the same frame that is below a disparity threshold, and disabling the at least one of the encoding tools when the amount of disparity exceeds the disparity threshold, wherein the at least one of the encoding tools is a deblocking filter and/or a sub-sample motion compensation filter.
Industrial truck having a hitch for transporting trailers and having a lifting device for lifting loads, wherein the lifting device comprises a fork carrier which is equipped with a fork-shaped load pick-up means, wherein the load pick-up means has at least one load section (14a; 14b) which is arranged on the fork carrier so as to be pivotable through substantially 90° about a substantially horizontal first pivot axis between a folded-out position and a folded-in position, characterized in that the fork carrier is arranged on a lifting carriage so as to be pivotable about a substantially horizontal second pivot axis, wherein the lifting carriage is arranged so as to be raisable and lowerable on the lifting device, and a positioning drive is provided by means of which the fork carrier is pivotable relative to the lifting carriage about the second pivot axis and by means of which the at least one load section (14a; 14b) of the load pick-up means is pivotable relative to the fork carrier about the first pivot axis.
An automotive electric liquid pump with a pump rotor and a motor rotor configured to rotate in a separation can and being defined by a motor rotor body made out of a ferromagnetic material and being permanently magnetized, wherein the pump rotor is supported by a co-rotating rotor shaft which is co-rotatably fixed to the motor rotor, the radial outside of the motor rotor is provided with a cylindrical bearing ring (34,36) and the radial inside of the separation can is provided with a corresponding static bearing ring (54, 56), and the rotor bearing ring (34, 36) and the static bearing ring (54, 56) together define a radial slide bearing (61, 62).
A hinge or the like comprising a detection unit configured to measure the opening angle of the hinge as a function of time, such that the hinge or the like comprises a first knuckle, a second knuckle and a spindle fitted into the first knuckle and into the second knuckle, the spindle comprising the detection unit, characterized in that a first part of the spindle is coupled in rotation with the first knuckle and a second part of the spindle is coupled in rotation with the second knuckle, a first portion of the detection unit being coupled in rotation with the first part while a second portion of the detection unit is coupled in rotation with the second part.
A user equipment in a LTE network, comprising: a processor; and a communications subsystem, wherein the processor and communications subsystem are configured to cooperate to: receive a control format indicator (2310; 2340; 2410; 2440) on a Physical Control Format Indicator Channel, PCFICH, in a sub-frame; obtain a control region size indicator on a Physical Hybrid Automatic Repeat Request, HARQ, Indicator Channel, PHICH, resource in the sub-frame, wherein the control region size indicator indicates a control region size of the sub-frame; and determine a control region size of the sub-frame with the control format indicator and the control region size indicator. a processor; and a communications subsystem, receive a control format indicator (2310; 2340; 2410; 2440) on a Physical Control Format Indicator Channel, PCFICH, in a sub-frame; obtain a control region size indicator on a Physical Hybrid Automatic Repeat Request, HARQ, Indicator Channel, PHICH, resource in the sub-frame, wherein the control region size indicator indicates a control region size of the sub-frame; and determine a control region size of the sub-frame with the control format indicator and the control region size indicator.
A tapered roller bearing comprising: tapered rollers each having a roller large end surface; and an inner ring having a large flange surface configured to come into sliding contact with the roller large end surfaces of the tapered rollers, wherein the large flange surface has: an arithmetic mean roughness Ra of 0.1 μm ≤ Ra ≤ 0.2 μm; a roughness curve skewness Rsk of -1.0 ≤ Rsk ≤ -0.3; and a roughness curve kurtosis Rku of 3.0 ≤ Rku ≤ 5.0 characterized in that the large flange surface has one of: a shape generated by a concave generatrix having a maximum depth of 1 μm or less at a mid-portion thereof; and a shape generated by a convex generatrix having a maximum height of 1 μm or less at a mid-portion thereof. tapered rollers each having a roller large end surface; and an inner ring having a large flange surface configured to come into sliding contact with the roller large end surfaces of the tapered rollers, wherein the large flange surface has: an arithmetic mean roughness Ra of 0.1 μm ≤ Ra ≤ 0.2 μm; a roughness curve skewness Rsk of -1.0 ≤ Rsk ≤ -0.3; and a roughness curve kurtosis Rku of 3.0 ≤ Rku ≤ 5.0 characterized in that the large flange surface has one of: a shape generated by a concave generatrix having a maximum depth of 1 μm or less at a mid-portion thereof; and a shape generated by a convex generatrix having a maximum height of 1 μm or less at a mid-portion thereof. an arithmetic mean roughness Ra of 0.1 μm ≤ Ra ≤ 0.2 μm; a roughness curve skewness Rsk of -1.0 ≤ Rsk ≤ -0.3; and a roughness curve kurtosis Rku of 3.0 ≤ Rku ≤ 5.0 characterized in that the large flange surface has one of: a shape generated by a concave generatrix having a maximum depth of 1 μm or less at a mid-portion thereof; and a shape generated by a convex generatrix having a maximum height of 1 μm or less at a mid-portion thereof. a shape generated by a concave generatrix having a maximum depth of 1 μm or less at a mid-portion thereof; and a shape generated by a convex generatrix having a maximum height of 1 μm or less at a mid-portion thereof.
Method for the production of organic carbon fertilizer from anaerobically treated fermentation products from biogas plants, which are subjected to drying to > 85% dry matter and the dry matter is mixed with biochar between 5% and 50%, whereby the proportion of digestate being reduced to 95% to 50% a liquid and/or solid nitrogen mixture of organic or inorganic origin is added to the organic carbon fertilizer before drying and after the anaerobic fermentation and that the total nitrogen content in the finished product is increased to between 3% to 20% by the substances used.
A method of treating comminuted waste material, the method comprising: a) heating comminuted waste material in a first, second and third zone (28a, 28b, 28c) of a rotatable heating chamber using one or more heating means to generate a combustible gas, b) measuring or determining the temperature in the first, second and third zone (28a, 28b, 28c) of the rotatable heating chamber; c) comparing the measured or determined temperature in the first, second and/or third zone (28a, 28b, 28c) of the rotatable heating chamber with a predetermined temperature range for each of the first, second and third zone (28a, 28b, 28c); and d) adjusting the amount of heat applied by the one or more heating means to the first, second and third zone (28a, 28b, 28c) of the rotatable heating chamber to maintain the temperature in each of the first, second and third zone (28a, 28b, 28c) of the rotatable heating chamber within the predetermined temperature range for each of the first, second and third zone (28a, 28b, 28c); wherein the first zone has a first temperature T1, the second zone has a second temperature T2 and the third zone has a third temperature T3 and wherein the second and third temperatures T2 and T3 are higher than the first temperature T1. a) heating comminuted waste material in a first, second and third zone (28a, 28b, 28c) of a rotatable heating chamber using one or more heating means to generate a combustible gas, b) measuring or determining the temperature in the first, second and third zone (28a, 28b, 28c) of the rotatable heating chamber; c) comparing the measured or determined temperature in the first, second and/or third zone (28a, 28b, 28c) of the rotatable heating chamber with a predetermined temperature range for each of the first, second and third zone (28a, 28b, 28c); and d) adjusting the amount of heat applied by the one or more heating means to the first, second and third zone (28a, 28b, 28c) of the rotatable heating chamber to maintain the temperature in each of the first, second and third zone (28a, 28b, 28c) of the rotatable heating chamber within the predetermined temperature range for each of the first, second and third zone (28a, 28b, 28c); wherein the first zone has a first temperature T1, the second zone has a second temperature T2 and the third zone has a third temperature T3 and wherein the second and third temperatures T2 and T3 are higher than the first temperature T1.
A mobile computing device, comprising: a processor; and a memory coupled to the processor and comprising computer readable program code embodied in the memory that when executed by the processor causes the processor to perform operations comprising: receiving a key update message (302; 510) comprising key update information from another computing device for a key stored in a trusted execution environment, TEE, of the mobile computing device, wherein the processor uses a configuration defined by the stored key to control whether a trusted application in the TEE is allowed access to resources of the mobile computing device; authenticating the key update message (302; 510) for the key stored in the TEE of the mobile computing device; and responsive to a positive authentication of the key update message (302; 510), changing the configuration defined by the stored key in the TEE based upon the key update information, wherein changes to the configuration responsive to the key update information change which of the resources of the mobile computing device the trusted app is allowed to access by the processor. a processor; and a memory coupled to the processor and comprising computer readable program code embodied in the memory that when executed by the processor causes the processor to perform operations comprising: receiving a key update message (302; 510) comprising key update information from another computing device for a key stored in a trusted execution environment, TEE, of the mobile computing device, wherein the processor uses a configuration defined by the stored key to control whether a trusted application in the TEE is allowed access to resources of the mobile computing device; authenticating the key update message (302; 510) for the key stored in the TEE of the mobile computing device; and responsive to a positive authentication of the key update message (302; 510), changing the configuration defined by the stored key in the TEE based upon the key update information, wherein changes to the configuration responsive to the key update information change which of the resources of the mobile computing device the trusted app is allowed to access by the processor. receiving a key update message (302; 510) comprising key update information from another computing device for a key stored in a trusted execution environment, TEE, of the mobile computing device, wherein the processor uses a configuration defined by the stored key to control whether a trusted application in the TEE is allowed access to resources of the mobile computing device; authenticating the key update message (302; 510) for the key stored in the TEE of the mobile computing device; and responsive to a positive authentication of the key update message (302; 510), changing the configuration defined by the stored key in the TEE based upon the key update information, wherein changes to the configuration responsive to the key update information change which of the resources of the mobile computing device the trusted app is allowed to access by the processor.
A computer-implemented method comprising: receiving, by a recipient device of a given recipient and from a client device, a communication comprising an attestation token and one or more attachment elements, wherein: the attestation token comprises: a set of data; and a digital signature of the set of data; and each attachment element comprises: recipient data for a respective recipient of the communication; and a binding that cryptographically binds the attachment element to the attestation token; verifying, by the recipient device, integrity of the communication using the attestation token and a given attachment element for the given recipient, comprising: verifying, by the recipient device, integrity of the given attachment element, comprising determining, based on the binding of the given attachment element, that the attachment element is bound to the attestation token; and verifying, by the recipient device, integrity of the attestation token comprising determining, based on the set of data, that the digital signature is valid; and responding to the communication in response to verifying the integrity of communication. receiving, by a recipient device of a given recipient and from a client device, a communication comprising an attestation token and one or more attachment elements, wherein: the attestation token comprises: a set of data; and a digital signature of the set of data; and each attachment element comprises: recipient data for a respective recipient of the communication; and a binding that cryptographically binds the attachment element to the attestation token; the attestation token comprises: a set of data; and a digital signature of the set of data; and a set of data; and a digital signature of the set of data; and each attachment element comprises: recipient data for a respective recipient of the communication; and a binding that cryptographically binds the attachment element to the attestation token; recipient data for a respective recipient of the communication; and a binding that cryptographically binds the attachment element to the attestation token; verifying, by the recipient device, integrity of the communication using the attestation token and a given attachment element for the given recipient, comprising: verifying, by the recipient device, integrity of the given attachment element, comprising determining, based on the binding of the given attachment element, that the attachment element is bound to the attestation token; and verifying, by the recipient device, integrity of the attestation token comprising determining, based on the set of data, that the digital signature is valid; and verifying, by the recipient device, integrity of the given attachment element, comprising determining, based on the binding of the given attachment element, that the attachment element is bound to the attestation token; and verifying, by the recipient device, integrity of the attestation token comprising determining, based on the set of data, that the digital signature is valid; and responding to the communication in response to verifying the integrity of communication.
A base fabric for an airbag composed of woven polyamide yarns, wherein the retention rate of the strength of sewn parts of the base fabric before and after heat treatment for 400 hours at 140°C is 70% or more, as measured in a method described in the description, and wherein at least one type of oily component selected from the group consisting of a higher alcohol ester and/or a higher alcohol polyether ester of a carboxylic acid having a thioether group, a nonionic surfactant component and a modified silicone component is imparted to polyamide yarns followed by weaving into a woven fabric, the amount of cyclohexane-extracted oily components is greater than 0.02% by weight but less than 0.3% by weight based on the weight of the base fabric, the tensile strength of the base fabric following heat treatment for 400 hours at 140°C is 500 N/cm or more, as measured by the method described in the description, and the crimp of both warp and weft yarns is 0.5% to 12%, as measured by the method described in the description, wherein the difference in crimps of yarns between the warp direction and weft direction of yarns composing the base fabric before and after heat treatment for 400 hours at 140°C is 8.5% or less, as measured by the method described in the description, and the higher alcohol ester and/or a higher alcohol polyether ester of the carboxylic acid having a thioether group is contained in the cyclohexane-extracted oily components at 0.015% by weight or more based on the weight of the base fabric, as measured by the method described in the description.
An oxidation catalyst for treating an exhaust gas produced by a diesel engine comprising a catalytic region and a substrate, wherein the catalytic region is free of rhodium and comprises a catalytic material comprising: iron or an oxide thereof; a platinum group metal which is both platinum and palladium at a weight ratio of 10:1 to 4:1; and a support material, which is a refractory oxide comprising alumina; wherein the platinum group metal and the iron or an oxide thereof is each supported on the support material. iron or an oxide thereof; a platinum group metal which is both platinum and palladium at a weight ratio of 10:1 to 4:1; and a support material, which is a refractory oxide comprising alumina; wherein the platinum group metal and the iron or an oxide thereof is each supported on the support material.
A print system comprising: a component device (202, 302) operational in a number of states; a density engine (104, 304, 504) to: determine a plurality of plane regions (108, 208) of a page that are expected to receive a threshold amount of print fluid based on data of a print job; assign a value to each plane region (108, 208) of the plurality of plane regions (334, 566) relative to a position of the each plane region (108, 208) on the page, the value associated with a print fluid density and based on a likelihood of distortion at that plane region in comparison to other regions; combine the value of each plane region (108, 208) to produce a page score corresponding to locations of the threshold amount of print fluid; map the page score to an identifier representing a classification related to print fluid density (110, 210, 410, 510); and a component engine (106, 306, 506) to cause an adjustment of a component attribute of the component device (202, 302) based on the identifier (110, 210, 410, 510). a component device (202, 302) operational in a number of states; a density engine (104, 304, 504) to: determine a plurality of plane regions (108, 208) of a page that are expected to receive a threshold amount of print fluid based on data of a print job; assign a value to each plane region (108, 208) of the plurality of plane regions (334, 566) relative to a position of the each plane region (108, 208) on the page, the value associated with a print fluid density and based on a likelihood of distortion at that plane region in comparison to other regions; combine the value of each plane region (108, 208) to produce a page score corresponding to locations of the threshold amount of print fluid; map the page score to an identifier representing a classification related to print fluid density (110, 210, 410, 510); and determine a plurality of plane regions (108, 208) of a page that are expected to receive a threshold amount of print fluid based on data of a print job; assign a value to each plane region (108, 208) of the plurality of plane regions (334, 566) relative to a position of the each plane region (108, 208) on the page, the value associated with a print fluid density and based on a likelihood of distortion at that plane region in comparison to other regions; combine the value of each plane region (108, 208) to produce a page score corresponding to locations of the threshold amount of print fluid; map the page score to an identifier representing a classification related to print fluid density (110, 210, 410, 510); and a component engine (106, 306, 506) to cause an adjustment of a component attribute of the component device (202, 302) based on the identifier (110, 210, 410, 510).
A monolithic subsea pipe cap assembly (14, 18) comprising a unitary body, a connector (16,19) integrally formed at a proximal end of the unitary body and a pipe cap integrally formed at a distal end of the unitary body wherein the pipe cap comprises a tapered cross-sectional surface suitable for butt welding the monolithic subsea pipe cap assembly (14, 18) to a tubular component employed to contain high pressure fluids characterised in that the connector comprises a padeye or a hook.