mhurhangee/ep-ind-claims huggingface dataset:
An exhaust-gas guiding housing for an exhaust-gas system of an internal combustion engine, comprising an air inlet housing part through which exhaust gas can flow in an exhaust-gas main flow direction and which has a housing wall which surrounds a housing longitudinal axis, wherein at least one air inlet opening is provided in at least one air inlet peripheral region of the housing wall, wherein an inner wall is provided at an inner side of the air inlet housing part, which inner wall, together with the housing wall, borders an air inlet chamber, and the at least one air inlet opening being open to the air inlet chamber, wherein a plurality of air passage openings which are successive in a peripheral direction about the housing longitudinal axis is provided in the inner wall, characterized in that an opening size of the air passage openings increases in a peripheral direction proceeding from the at least one air inlet peripheral region.
A method for allocating concurrent multiplex bandwidth, comprising: monitoring a traffic demand on a transmitter; and upon the traffic demand reaching an allocation threshold, allocating an additional bandwidth to the transmitter, and transmitting a bandwidth update signal to the transmitter and to a receiver associated with the transmitter, wherein the allocating includes placing the additional bandwidth within a first multiplexing scheme if the traffic demand is less than a multiplexing mode switching threshold, and placing the additional bandwidth within a second multiplexing scheme if the traffic demand meets the multiplexing mode switching threshold. monitoring a traffic demand on a transmitter; and upon the traffic demand reaching an allocation threshold, allocating an additional bandwidth to the transmitter, and transmitting a bandwidth update signal to the transmitter and to a receiver associated with the transmitter, allocating an additional bandwidth to the transmitter, and transmitting a bandwidth update signal to the transmitter and to a receiver associated with the transmitter, wherein the allocating includes placing the additional bandwidth within a first multiplexing scheme if the traffic demand is less than a multiplexing mode switching threshold, and placing the additional bandwidth within a second multiplexing scheme if the traffic demand meets the multiplexing mode switching threshold.
Composition for controlling parasites on animals, comprising an N-phenylpyrazole in a formulation comprising: - an aliphatic cyclic carbonate - an aliphatic cyclic or acyclic polyether or an ether derived from diols having up to 8 carbon atoms, or a 5- or 6-membered cyclic ether - and one or more esters of a dihydric or trihydric alcohol having up to 3 carbon atoms with organic fatty acids having 6 to 18 carbon atoms. - an aliphatic cyclic carbonate - an aliphatic cyclic or acyclic polyether or an ether derived from diols having up to 8 carbon atoms, or a 5- or 6-membered cyclic ether - and one or more esters of a dihydric or trihydric alcohol having up to 3 carbon atoms with organic fatty acids having 6 to 18 carbon atoms.
A double-flow air processing unit for thermal regulation and air renewal of at least one zone to be treated, said double-flow air processing unit being a dessication air processing unit which includes at least: - two air flow paths between the zone and the outside, comprising a return path and a blowing path; - a return fan placed on the return path to extract stale air from the zone and rejecti it to the outside; - a blowing fan placed on the blowing path to draw in fresh air from the outside and blow it into the zone; - a desiccant wheel interposed on the two air flow paths (20R, 20S); - a recovery heat exchanger interposed on the two air flow paths (20R, 20S) and providing a heat exchange between the stale air drawn from the zone and the fresh air drawn in from the exterior; - a regeneration heating battery placed on the return path upstream of the desiccant wheel and downstream of the recovery heat exchanger, and providing heating of the stale air for regeneration of the desiccant wheel; - a blowing humidifier placed on the blowing path downstream of the recovery heat exchanger; - a heater heating battery placed on the blowing path downstream of the recovery heat exchanger; - a thermal generator connected to the regeneration heating battery and to the heater heating battery; said double-flow air processing unit being characterized in that it further comprises an enthalpy heat exchanger interposed on the two air flow paths (20R, 20S) between the desiccant wheel and the regeneration heating battery, so that the regeneration heating battery and the recovery heat exchanger are upstream of the enthalpy heat exchanger on the return path, said enthalpy heat exchanger providing heat and humidity exchange between the stale air drawn from the zone and the fresh air blown into the zone. - two air flow paths between the zone and the outside, comprising a return path and a blowing path; - a return fan placed on the return path to extract stale air from the zone and rejecti it to the outside; - a blowing fan placed on the blowing path to draw in fresh air from the outside and blow it into the zone; - a desiccant wheel interposed on the two air flow paths (20R, 20S); - a recovery heat exchanger interposed on the two air flow paths (20R, 20S) and providing a heat exchange between the stale air drawn from the zone and the fresh air drawn in from the exterior; - a regeneration heating battery placed on the return path upstream of the desiccant wheel and downstream of the recovery heat exchanger, and providing heating of the stale air for regeneration of the desiccant wheel; - a blowing humidifier placed on the blowing path downstream of the recovery heat exchanger; - a heater heating battery placed on the blowing path downstream of the recovery heat exchanger; - a thermal generator connected to the regeneration heating battery and to the heater heating battery;
A 3-dimensional printed part having an integrated strain sensor, comprising: a part body formed of fused thermoplastic polymer particles; and a resistor formed of a matrix of sintered elemental transition metal particles interlocked with a matrix of fused thermoplastic polymer particles, wherein the matrix of fused thermoplastic polymer particles is continuously fused to the fused thermoplastic polymer particles of the part body. a part body formed of fused thermoplastic polymer particles; and a resistor formed of a matrix of sintered elemental transition metal particles interlocked with a matrix of fused thermoplastic polymer particles, wherein the matrix of fused thermoplastic polymer particles is continuously fused to the fused thermoplastic polymer particles of the part body.
Switch for a belt lock of a safety belt device with: - at least two contact elements (4,5) resting on one another in a hollow space of the switch or coming to rest on one another, wherein at least one of the contact elements (4, 5) is designed as a movable contact spring, and - with an introductory channel into which a belt tongue, a locking part, an ejector or a part that is coupled by movement technology to one of these parts can be guided in and out during the locking and unlocking movement of the belt tongue at least with one section, and - with a movably supported coupling member which projects with a first section into the introductory channel and comprises a second section associated with the contact spring, wherein - the movably supported coupling member rests with the second section on the contact spring independently of the position, characterized by that - the coupling member and the contact spring are guided to one another by a positive engagement by movement technology. - at least two contact elements (4,5) resting on one another in a hollow space of the switch or coming to rest on one another, wherein at least one of the contact elements (4, 5) is designed as a movable contact spring, and - with an introductory channel into which a belt tongue, a locking part, an ejector or a part that is coupled by movement technology to one of these parts can be guided in and out during the locking and unlocking movement of the belt tongue at least with one section, and - with a movably supported coupling member which projects with a first section into the introductory channel and comprises a second section associated with the contact spring, wherein - the movably supported coupling member rests with the second section on the contact spring independently of the position, characterized by that - the coupling member and the contact spring are guided to one another by a positive engagement by movement technology.
A method for transferring system messages using Session Initiation Protocol, SIP, by a client device (10, 110) in a system for providing communication service using the SIP, comprising: receiving a request message from a server (20, 130), wherein the request message includes a first message type indicating that the request message is for requesting a confirmation response from the client device (10, 110), wherein the request message includes a feature tag identifying that the request message is a system message; generating a response message corresponding to the request message, wherein the response message includes a second message type indicating that the response message is for responding to the request message, wherein the response message includes the feature tag identifying that the response message is a system message; and transmitting the response message to the server (20, 130). receiving a request message from a server (20, 130), wherein the request message includes a first message type indicating that the request message is for requesting a confirmation response from the client device (10, 110), wherein the request message includes a feature tag identifying that the request message is a system message; generating a response message corresponding to the request message, wherein the response message includes a second message type indicating that the response message is for responding to the request message, wherein the response message includes the feature tag identifying that the response message is a system message; and transmitting the response message to the server (20, 130).
A method of address translation comprising: receiving a first address of a memory access in a first address domain; receiving an indication of a number of predicted sequential memory accesses following the first address; searching a micro translation look-aside buffer for a first address translation entry corresponding to the first address; if the first address translation entry is not stored in the micro translation look-aside buffer, recalling the first address translation entry from a memory management unit, and storing the recalled first address translation entry in the micro translation look-aside buffer; translating the first address to a second address in a second domain according to the first address translation entry; determining from the first address and the indication of the number of predicted sequential memory accesses whether a last of the number of predicted sequential memory accesses corresponds to a next address translation entry following the first address translation entry; if the last of the number of predicted sequential memory accesses corresponds to a next address translation entry following the first address translation entry, searching the micro translation look-aside buffer for the next address translation entry; and if the next address translation entry is not stored in the micro translation look-aside buffer, recalling the next address translation entry from the memory management unit, and storing the recalled next address translation entry in the micro translation look-aside buffer. receiving a first address of a memory access in a first address domain; receiving an indication of a number of predicted sequential memory accesses following the first address; searching a micro translation look-aside buffer for a first address translation entry corresponding to the first address; if the first address translation entry is not stored in the micro translation look-aside buffer, recalling the first address translation entry from a memory management unit, and storing the recalled first address translation entry in the micro translation look-aside buffer; translating the first address to a second address in a second domain according to the first address translation entry; determining from the first address and the indication of the number of predicted sequential memory accesses whether a last of the number of predicted sequential memory accesses corresponds to a next address translation entry following the first address translation entry; if the last of the number of predicted sequential memory accesses corresponds to a next address translation entry following the first address translation entry, searching the micro translation look-aside buffer for the next address translation entry; and if the next address translation entry is not stored in the micro translation look-aside buffer, recalling the next address translation entry from the memory management unit, and storing the recalled next address translation entry in the micro translation look-aside buffer.
A method for correcting spatial error or jitter associated with an interaction device, the method comprising: - receiving, at a computing device, one or more encrypted parameters directed to correcting spatial error or jitter associated with an interaction device; - decrypting the one or more encrypted parameters to provide one or more parameters that are consumable by the computing device; - receiving, from the interaction device, interaction signals directed to moving one or more display screen elements; and - consuming the one or more parameters to correct the spatial error or the jitter associated with the interaction device wherein said spatial error or said jitter is associated with the interaction signals and the moving of the one or more display screen elements, wherein - the one or more encrypted parameters are received from the interaction device, and - the one or more parameters provide an adjustment to one or more reported positions from a detection area of the interaction device, and - the interaction device is a digitizer or any other device capable of receiving interaction signals in input and providing the corresponding digital signals to the computing device. - receiving, at a computing device, one or more encrypted parameters directed to correcting spatial error or jitter associated with an interaction device; - decrypting the one or more encrypted parameters to provide one or more parameters that are consumable by the computing device; - receiving, from the interaction device, interaction signals directed to moving one or more display screen elements; and - consuming the one or more parameters to correct the spatial error or the jitter associated with the interaction device wherein said spatial error or said jitter is associated with the interaction signals and the moving of the one or more display screen elements, wherein - the one or more encrypted parameters are received from the interaction device, and - the one or more parameters provide an adjustment to one or more reported positions from a detection area of the interaction device, and - the interaction device is a digitizer or any other device capable of receiving interaction signals in input and providing the corresponding digital signals to the computing device. - the interaction device is a digitizer or any other device capable of receiving interaction signals in input and providing the corresponding digital signals to the computing device.
A video encoding device for dividing input image data into blocks of a predetermined size, and applying quantization to a frequency-transformed residual block based on a divided image block to execute a compressive encoding process, comprising quantization step size encoding means for encoding a quantization step size that controls a granularity of the quantization, wherein the quantization step size encoding means calculates the quantization step size that controls the granularity of the quantization by -based on an image prediction parameter- selectively using a quantization step size assigned to a neighboring image block already encoded or a quantization step size assigned to an image block encoded immediately before.
A topical composition for use in a method of treating and/or preventing a viral infection in a subject in need thereof, said method comprising: administering the topical composition to the skin of a subject, wherein the topical composition comprises a nitric oxide-releasing active pharmaceutical ingredient that releases nitric oxide to the skin of the subject, and wherein the topical composition maintains a real time concentration of nitric oxide of at least about 7 pmol of NO/mg of the composition for at least 1 hour after administration, as measured by real time in vitro release testing, thereby treating and/or preventing the viral infection in the subject, wherein the nitric oxide-releasing active pharmaceutical ingredient comprises a NO-releasing co-condensed silica particle having a diazeniumdiolate functional group. administering the topical composition to the skin of a subject, wherein the topical composition comprises a nitric oxide-releasing active pharmaceutical ingredient that releases nitric oxide to the skin of the subject, and wherein the topical composition maintains a real time concentration of nitric oxide of at least about 7 pmol of NO/mg of the composition for at least 1 hour after administration, as measured by real time in vitro release testing, thereby treating and/or preventing the viral infection in the subject, wherein the nitric oxide-releasing active pharmaceutical ingredient comprises a NO-releasing co-condensed silica particle having a diazeniumdiolate functional group.
A method of inspecting pipette tips each extending along a longitudinal axis, the method comprising the following method steps: a) Providing pipette tips arranged in a first carrier; b) Picking up pipette tips from the first carrier by a holding device comprising a plurality of pick-up elements for receiving one pipette tip each; c) Acquiring first image data of the respective pipette tip outlet openings of the pipette tips picked up by the holding device by a first image acquisition device; d) Acquiring second image data of the pipette tips held in the holding device by a second image acquisition device, the optical axis of which is aligned during the acquisition of the second image data transversely to the respective longitudinal axis of the pipette tips held in the holding device and onto the partial segments of the respective pipette tip jacket surfaces of the held pipette tips facing the second image acquisition device; e) Determining whether or not the first and/or second image data are within predefined allowable limits using a data processing system; f) Discarding those pipette tips whose first and/or second image data determined in step e) lie outside the predefined allowable limits into a waste container by the holding device; g) Dispensing those pipette tips whose first and second image data determined in step e) lie within the predefined allowable limits into a second carrier, in particular into a rack (21, 21'); wherein in method step d) the second image data of several of the pipette tips held in the holding device, preferably of all pipette tips held in the holding device, are acquired simultaneously. a) Providing pipette tips arranged in a first carrier; b) Picking up pipette tips from the first carrier by a holding device comprising a plurality of pick-up elements for receiving one pipette tip each; c) Acquiring first image data of the respective pipette tip outlet openings of the pipette tips picked up by the holding device by a first image acquisition device; d) Acquiring second image data of the pipette tips held in the holding device by a second image acquisition device, the optical axis of which is aligned during the acquisition of the second image data transversely to the respective longitudinal axis of the pipette tips held in the holding device and onto the partial segments of the respective pipette tip jacket surfaces of the held pipette tips facing the second image acquisition device; e) Determining whether or not the first and/or second image data are within predefined allowable limits using a data processing system; f) Discarding those pipette tips whose first and/or second image data determined in step e) lie outside the predefined allowable limits into a waste container by the holding device; g) Dispensing those pipette tips whose first and second image data determined in step e) lie within the predefined allowable limits into a second carrier, in particular into a rack (21, 21'); wherein in method step d) the second image data of several of the pipette tips held in the holding device, preferably of all pipette tips held in the holding device, are acquired simultaneously.
A composite actuator comprising: an extensible polymer defining a pneumatic chamber, configured to contain pressurizable fluid; a woven or non-woven sheet of fabric embedded into at least a portion of the extensible polymer, wherein, upon pressurization of the pneumatic chamber, the pneumatic chamber is configured to expand radially to provide a motion of the composite actuator; and an inlet coupled to the pneumatic chamber for receiving the pressurizable fluid, characterized in that the sheet of fabric comprises a plurality of slits distributed about a central axis of the composite actuator. an extensible polymer defining a pneumatic chamber, configured to contain pressurizable fluid; a woven or non-woven sheet of fabric embedded into at least a portion of the extensible polymer, wherein, upon pressurization of the pneumatic chamber, the pneumatic chamber is configured to expand radially to provide a motion of the composite actuator; and an inlet coupled to the pneumatic chamber for receiving the pressurizable fluid, characterized in that the sheet of fabric comprises a plurality of slits distributed about a central axis of the composite actuator.
A three-dimensional display system comprising a display housing and a plurality of projectors for projecting two-dimensional image components into a three dimensional display volume, the three dimensional display volume comprising a particle cloud, each projector having means to adjust the distance of the projected image from the projector, and each projector being pivotally mounted to the display housing, for adjusting horizontal and vertical positions of the projected two-dimensional image component with respect to the projector, the projectors each having adjustable throw distances and projecting a two-dimensional image component or portion thereof, characterised in that the two-dimensional image components combining to form an image of a three-dimensional object.