mhurhangee/ep-ind-claims huggingface dataset:
A method of processing audio signals, the method comprising: receiving an input audio signal that includes N r input audio channels, the input audio signal representing a first soundfield format having a first soundfield format resolution, N r being an integer ≥ 2; applying a first decorrelation process to a set of two or more of the input audio channels to produce a first set of decorrelated channels, the first decorrelation process maintaining an inter-channel correlation of the set of input audio channels; applying a first modulation process to the first set of decorrelated channels to produce a first set of decorrelated and modulated output channels; and combining the first set of decorrelated and modulated output channels with N r undecorrelated output channels to produce an output audio signal that includes N p output audio channels, N p being an integer ≥ 3, the output channels representing a second soundfield format that is a relatively higher-resolution soundfield format than the first soundfield format, characterized in that the N p output channels include the N r undecorrelated output channels corresponding with lower-resolution components of the output audio signal and the decorrelated and modulated output channels corresponding with higher-resolution components of the output audio signal. receiving an input audio signal that includes N r input audio channels, the input audio signal representing a first soundfield format having a first soundfield format resolution, N r being an integer ≥ 2; applying a first decorrelation process to a set of two or more of the input audio channels to produce a first set of decorrelated channels, the first decorrelation process maintaining an inter-channel correlation of the set of input audio channels; applying a first modulation process to the first set of decorrelated channels to produce a first set of decorrelated and modulated output channels; and combining the first set of decorrelated and modulated output channels with N r undecorrelated output channels to produce an output audio signal that includes N p output audio channels, N p being an integer ≥ 3, the output channels representing a second soundfield format that is a relatively higher-resolution soundfield format than the first soundfield format, characterized in that the N p output channels include the N r undecorrelated output channels corresponding with lower-resolution components of the output audio signal and the decorrelated and modulated output channels corresponding with higher-resolution components of the output audio signal.
A method of securely deploying, to an edge device (106, 108, 110, 206), a secure cloud workload with a workload identifier uniquely identifying the secure cloud workload from a workload provisioning service including one or more workload provisioning servers, the method comprising: receiving, at the one or more workload provisioning servers, a device identifier (114, 214) uniquely identifying the edge device; cryptographically generating, by the one or more workload provisioning servers, a unique packaging key based on the received device identifier, the workload identifier, and a nonce; encrypting, by the one or more workload provisioning servers, the secure cloud workload to generate a packaged secure cloud workload using the cryptographically generated unique packaging key; and transmitting, from the one or more workload provisioning servers, the packaged secure cloud workload to the edge device, the edge device being configured to independently cryptographically generate the unique packaging key using the device identifier, the workload identifier, and the nonce, the edge device being further configured to decrypt the packaged secure cloud workload using the generated unique packaging key cryptographically generated by the edge device. receiving, at the one or more workload provisioning servers, a device identifier (114, 214) uniquely identifying the edge device; cryptographically generating, by the one or more workload provisioning servers, a unique packaging key based on the received device identifier, the workload identifier, and a nonce; encrypting, by the one or more workload provisioning servers, the secure cloud workload to generate a packaged secure cloud workload using the cryptographically generated unique packaging key; and transmitting, from the one or more workload provisioning servers, the packaged secure cloud workload to the edge device, the edge device being configured to independently cryptographically generate the unique packaging key using the device identifier, the workload identifier, and the nonce, the edge device being further configured to decrypt the packaged secure cloud workload using the generated unique packaging key cryptographically generated by the edge device.
A method of preparing a thermoplastic elastomer foam, comprising: cooling a thermoplastic elastomer comprising from 0.1 wt% to 20 wt% of a semi-crystalline polymer to a temperature below the crystallization temperature of the semi-crystalline polymer, wherein crystalline regions of the semi-crystalline polymer phase separate from the thermoplastic elastomer, the polymer mixture being uniform such that the crystalline regions are uniformly distributed in the thermoplastic elastomer; incorporating a gaseous or supercritical blowing agent into the thermoplastic elastomer under pressure before, during, or after the crystalline regions phase separate; releasing the pressure at a temperature at which the crystalline regions are present; and foaming the thermoplastic elastomer to form the thermoplastic elastomer foam. cooling a thermoplastic elastomer comprising from 0.1 wt% to 20 wt% of a semi-crystalline polymer to a temperature below the crystallization temperature of the semi-crystalline polymer, wherein crystalline regions of the semi-crystalline polymer phase separate from the thermoplastic elastomer, the polymer mixture being uniform such that the crystalline regions are uniformly distributed in the thermoplastic elastomer; incorporating a gaseous or supercritical blowing agent into the thermoplastic elastomer under pressure before, during, or after the crystalline regions phase separate; releasing the pressure at a temperature at which the crystalline regions are present; and foaming the thermoplastic elastomer to form the thermoplastic elastomer foam.
Shower floor element comprising a side gradation, composed of two or more foam plate parts (2, 3) that are arranged one on top of the other, or formed by a corresponding integral part having a stepped configuration, comprising a drainage channel, a drain and a film-like sealing element attached to the side, the drain being associated with a corner region of the shower floor element, the drainage channel being arranged on the side, and the sealing element, in terms of a factory pre-assembly, initially being attached on only two intersecting sides of the shower floor element, the drainage channel being provided on one of these sides in each case, characterised in that the drainage channel consists of a lower channel part that forms an edge of a slot opening of the drainage channel, and an upper channel part that can be mounted relative to the lower channel part and forms a further edge of the slot opening, the upper channel part being able to be mounted in various positions in a transverse direction relative to the lower channel part in order to set a desired slot width.
An outdoor sensing device comprising: a functional unit including a sensing element configured to sense to-be-sensed rays from an object through an optical member and a processing circuit configured to process a signal from the sensing element; a cover unit including an inner cover which has a predetermined dimension and houses the functional unit, and an outer cover which houses the inner cover; and a base unit to which the functional unit and the cover unit are attached, the base unit configured to be installed in an outside installation position, wherein the inner cover includes a water ingress prevention structure (280, 351, 352) disposed between the functional unit and the optical member to prevent water ingress from outside of the inner cover, and further includes a drain hole and a guide part configured to guide the water toward the drain hole on a bottom wall of the inner cover, and the outer cover has a bottom wall which defines a predetermined gap with respect to the bottom wall of the inner cover, and the bottom wall of the outer cover includes a drain part (315.319) configured to drain the water from the drain hole to outside of the outdoor sensing device and includes a blind structure which covers the drain hole of the inner cover such that the drain hole cannot be seen from the outside of the outdoor sensing device when viewed from below. a functional unit including a sensing element configured to sense to-be-sensed rays from an object through an optical member and a processing circuit configured to process a signal from the sensing element; a cover unit including an inner cover which has a predetermined dimension and houses the functional unit, and an outer cover which houses the inner cover; and a base unit to which the functional unit and the cover unit are attached, the base unit configured to be installed in an outside installation position, wherein the inner cover includes a water ingress prevention structure (280, 351, 352) disposed between the functional unit and the optical member to prevent water ingress from outside of the inner cover, and further includes a drain hole and a guide part configured to guide the water toward the drain hole on a bottom wall of the inner cover, and the outer cover has a bottom wall which defines a predetermined gap with respect to the bottom wall of the inner cover, and the bottom wall of the outer cover includes a drain part (315.319) configured to drain the water from the drain hole to outside of the outdoor sensing device and includes a blind structure which covers the drain hole of the inner cover such that the drain hole cannot be seen from the outside of the outdoor sensing device when viewed from below.
Apparatus for the mechanical storage of electrical energy / axial movement storage/collectore which is preferably produced from renewable energy sources, with one in a housing arranged spring accumulator, which is tensioned by means of an electric motor, characterized in that, the spring accumulator consists of a certain number of spring assemblies arranged in series, the springs (3a, b) being wound in opposite directions within the spring assemblies, via their outer ends via the connection) are interconnected and provided with a housing.
A method for polishing a vehicle tyre, comprising moving at least one vehicle tyre polishing agent application means in relation to a tyre of a stationary vehicle along an annular path formed on the side of the vehicle tyre and applying polishing agent on the side of the vehicle tyre as the application means moves in relation to the tyre of the stationary vehicle and that at least the application means of the polishing device for applying polishing agent on the side of the vehicle tyre is arranged in a tyre washing device intended for washing the side and rim of the vehicle tyre, the tyre washing device comprising a rotating motor and at least one tyre washing brush arranged to be rotated by the rotating motor in relation to the vehicle tyre, and that polishing agent is applied on the side of the vehicle tyre through a groove arranged on an outer circumference of the tyre washing brush past bristles in the tyre washing brush.
Base plate for fastening a rail to a fixed bottom support, having a through-opening (3g, 3h) which runs from the upper side of the base plate to its underside and through which a clamping bolt (10a, 10b) having a polygonal head can be inserted from the underside, there being formed or moulded in the underside of the base plate, in the region of the mouth of the through-opening (3g, 3h), a receptacle (3i, 3j) in which the head of the clamping bolt (10a, 1b) is seated in the fully installed state, wherein each side-face of the bolt head is associated with a face for contact which is formed on a circumferential wall of the receptacle (3i, 3j), against which the relevant side-face of the bolt head has, in the installed state, planar support, characterized in that each face for contact extends over a partial length (La) of whichever is the associated side-face of the bolt head, the faces for contact on the circumferential wall being arranged to be spaced apart from one another and there being formed or moulded in the circumferential wall of the receptacle (3i, 3j), between each pair of adjacent faces for contact, a recess in the region of which there is no contact between the bolt head and the circumferential wall of the receptacle (3i, 3j) in the fully installed state.
A gas turbine combustor for mixing fuel into combustion air introduced from a compressor, burning an air-fuel mixture, and supplying produced combustion gas to a gas turbine, the combustor comprising: a first fuel nozzle for jetting out fuel; a pre-mixture chamber wall provided with said first fuel nozzle at a center thereof, having a hollow conical shape gradually spreading in the direction in which the fuel is jetted out from said first fuel nozzle, and defining a pre-mixture chamber therein; characterized by a plurality of air inlet holes (14, 15, 16) bored through said pre-mixture chamber wall and introducing the combustion air to said pre-mixture chamber such that angles at which the combustion air is introduced to said pre-mixture chamber through said air inlet holes (14, 15, 16) are deflected at least toward the circumferential direction of said pre-mixture chamber wall; and a plurality of second fuel nozzles disposed around said pre-mixture chamber wall in an opposing relation respectively to said plurality of air inlet holes (14, 15, 16), said second fuel nozzles configured to jet out fuel substantially coaxially with axes of said air inlet holes (14, 15, 16). a first fuel nozzle for jetting out fuel; a pre-mixture chamber wall provided with said first fuel nozzle at a center thereof, having a hollow conical shape gradually spreading in the direction in which the fuel is jetted out from said first fuel nozzle, and defining a pre-mixture chamber therein; characterized by a plurality of air inlet holes (14, 15, 16) bored through said pre-mixture chamber wall and introducing the combustion air to said pre-mixture chamber such that angles at which the combustion air is introduced to said pre-mixture chamber through said air inlet holes (14, 15, 16) are deflected at least toward the circumferential direction of said pre-mixture chamber wall; and a plurality of second fuel nozzles disposed around said pre-mixture chamber wall in an opposing relation respectively to said plurality of air inlet holes (14, 15, 16), said second fuel nozzles configured to jet out fuel substantially coaxially with axes of said air inlet holes (14, 15, 16).
A method of periodically re-encrypting user data stored on a storage device, the method comprising: reading user data stored at a first location of the storage device, the storage device is a solid state drive, wherein the user data is associated with a user-visible identifier used to access the user data on the storage device; responsive to determining that the user data is encrypted utilizing an expiring data encryption key, by a garbage collection process on the storage device, re-encrypting the user data utilizing a current data encryption key selected from among a plurality of current encryption keys; writing the user data that is encrypted with the current data encryption key to a second location of the storage device, wherein the written user data encrypted with the current data encryption key continues to be accessed using the user-visible identifier, and erasing invalid data stored in the first location of the storage device. reading user data stored at a first location of the storage device, the storage device is a solid state drive, wherein the user data is associated with a user-visible identifier used to access the user data on the storage device; responsive to determining that the user data is encrypted utilizing an expiring data encryption key, by a garbage collection process on the storage device, re-encrypting the user data utilizing a current data encryption key selected from among a plurality of current encryption keys; writing the user data that is encrypted with the current data encryption key to a second location of the storage device, wherein the written user data encrypted with the current data encryption key continues to be accessed using the user-visible identifier, and erasing invalid data stored in the first location of the storage device. re-encrypting the user data utilizing a current data encryption key selected from among a plurality of current encryption keys; writing the user data that is encrypted with the current data encryption key to a second location of the storage device, wherein the written user data encrypted with the current data encryption key continues to be accessed using the user-visible identifier, and erasing invalid data stored in the first location of the storage device.
A composition comprising a peptide compound of Formula: S M -X R -Pep-Y R wherein: Pep is one of SEQ ID NOs: 1-14, 25-31, and 47; X R and Y R are each independently 0, 1, 2, 3, 4, 5, or 6 arginine residues, with the proviso that (X R + Y R) is 4, 5, or 6 arginine residues; and S M is a solubilizing moiety of one of -, wherein: is [2-(2-amino-ethoxy)-ethoxy]-acetic acid k (AEEA k), where k = 1-5; is {2-[2-(2-amino-ethoxy)-ethoxy]-ethoxy}-acetic acid k (AEEEA k), where k = 1-5; or is a combination of AEEA m and AEEEA n subunits, wherein m = 1-9 and n = 1-9 with the proviso that (m+n) is 2, 3, 4, 5, 6, 7, 8, 9, or 10, and wherein the AEEA m and AEEEA n subunits may be arranged in any order. Pep is one of SEQ ID NOs: 1-14, 25-31, and 47; X R and Y R are each independently 0, 1, 2, 3, 4, 5, or 6 arginine residues, with the proviso that (X R + Y R) is 4, 5, or 6 arginine residues; and S M is a solubilizing moiety of one of -, wherein: is [2-(2-amino-ethoxy)-ethoxy]-acetic acid k (AEEA k), where k = 1-5; is {2-[2-(2-amino-ethoxy)-ethoxy]-ethoxy}-acetic acid k (AEEEA k), where k = 1-5; or is a combination of AEEA m and AEEEA n subunits, wherein m = 1-9 and n = 1-9 with the proviso that (m+n) is 2, 3, 4, 5, 6, 7, 8, 9, or 10, and wherein the AEEA m and AEEEA n subunits may be arranged in any order. is [2-(2-amino-ethoxy)-ethoxy]-acetic acid k (AEEA k), where k = 1-5; is {2-[2-(2-amino-ethoxy)-ethoxy]-ethoxy}-acetic acid k (AEEEA k), where k = 1-5; or is a combination of AEEA m and AEEEA n subunits, wherein m = 1-9 and n = 1-9 with the proviso that (m+n) is 2, 3, 4, 5, 6, 7, 8, 9, or 10, and wherein the AEEA m and AEEEA n subunits may be arranged in any order.
A back-up featherer for an engine arrangement having a main hydraulic actuator (63a, 63b) which angularly displaces propellers of a propeller assembly (61 a, 61 b) of the engine arrangement, the back-up featherer having: a back-up hydraulic actuator for angular displacement of the propellers, the back-up hydraulic actuator rotating with the propeller assembly (61 a, 61 b), one or more back-up fluid supply lines for transferring hydraulic fluid between a hydraulic pressure power source located on a static structure of the engine arrangement and the back-up hydraulic actuator, and a back-up hydraulic rotating coupling, the back-up fluid supply lines fluidly communicating with the back-up hydraulic actuator via the back-up rotating coupling; wherein a static side of the back-up hydraulic rotating coupling is mounted to the static structure of the engine arrangement, and a rotating side of the back-up hydraulic rotating coupling rotates with the propeller assembly (61 a, 61 b). a back-up hydraulic actuator for angular displacement of the propellers, the back-up hydraulic actuator rotating with the propeller assembly (61 a, 61 b), one or more back-up fluid supply lines for transferring hydraulic fluid between a hydraulic pressure power source located on a static structure of the engine arrangement and the back-up hydraulic actuator, and a back-up hydraulic rotating coupling, the back-up fluid supply lines fluidly communicating with the back-up hydraulic actuator via the back-up rotating coupling; wherein a static side of the back-up hydraulic rotating coupling is mounted to the static structure of the engine arrangement, and a rotating side of the back-up hydraulic rotating coupling rotates with the propeller assembly (61 a, 61 b).
A fuel battery cell comprising: a membrane electrode assembly having a frame made of a resin in a periphery thereof, the frame being integrated with the membrane electrode assembly by resin molding; two separators (3A, 3B) holding the frame and the membrane electrode assembly therebetween, wherein a diffuser area (D1, D2) allowing a reaction gas to flow therethrough is formed between the frame and each of the separators (3A, 3B), a gas seal member (11, 12) is provided to a peripheral portion of each of the diffuser areas (D1, D2), and a diffuser-area-side edge position of the gas seal member in the diffuser area on a cathode side and a diffuser-area-side edge position of the gas seal member in the diffuser area on an anode side are offset from each other in an inside-outside direction of the diffuser areas, and each diffuser-area-side edge is an innermost edge of a respective gas seal member that is closest to the membrane electrode assembly. a membrane electrode assembly having a frame made of a resin in a periphery thereof, the frame being integrated with the membrane electrode assembly by resin molding; two separators (3A, 3B) holding the frame and the membrane electrode assembly therebetween, wherein a diffuser area (D1, D2) allowing a reaction gas to flow therethrough is formed between the frame and each of the separators (3A, 3B), a gas seal member (11, 12) is provided to a peripheral portion of each of the diffuser areas (D1, D2), and a diffuser-area-side edge position of the gas seal member in the diffuser area on a cathode side and a diffuser-area-side edge position of the gas seal member in the diffuser area on an anode side are offset from each other in an inside-outside direction of the diffuser areas, and each diffuser-area-side edge is an innermost edge of a respective gas seal member that is closest to the membrane electrode assembly.
Analysis unit having at least one sensor, wherein in a storage state of the analysis unit, the at least one sensor is arranged in a storage medium and is wetted through by the storage medium; wherein in a measurement state of the analysis unit, the at least one sensor can be brought into contact with a sample; characterized in that the analysis unit can be moved from the storage state into the measurement state by displacing the at least one sensor from a storage region of the analysis unit containing the storage medium into a sample region of the analysis unit, wherein a barrier between the storage region and the sample region is broken through. wherein in a storage state of the analysis unit, the at least one sensor is arranged in a storage medium and is wetted through by the storage medium; wherein in a measurement state of the analysis unit, the at least one sensor can be brought into contact with a sample; characterized in that the analysis unit can be moved from the storage state into the measurement state by displacing the at least one sensor from a storage region of the analysis unit containing the storage medium into a sample region of the analysis unit, wherein a barrier between the storage region and the sample region is broken through.