mhurhangee/ep-ind-claims huggingface dataset:
A solid cosmetic product comprising (i) a water dispersible fat containing component comprising (a) vegetable butter, vegetable oil or a mixture thereof, present in an amount of at least 35 wt.% based on the fat containing component; and (b) an emulsifier; (ii) a carbon dioxide effervescent component comprising (a) a salt of carbonic acid; and (b) an acidifying agent; wherein the water dispersible fat containing component and the carbon dioxide effervescent component are distinct from each other. (i) a water dispersible fat containing component comprising (a) vegetable butter, vegetable oil or a mixture thereof, present in an amount of at least 35 wt.% based on the fat containing component; and (b) an emulsifier; (a) vegetable butter, vegetable oil or a mixture thereof, present in an amount of at least 35 wt.% based on the fat containing component; and (b) an emulsifier; (ii) a carbon dioxide effervescent component comprising (a) a salt of carbonic acid; and (b) an acidifying agent; (a) a salt of carbonic acid; and (b) an acidifying agent;
Shoe, in particular athletic shoe, having a shoe upper and a rotary closure for lacing the shoe on the foot of the wearer by means of at least one tensioning element (4, 5), wherein the rotary closure has a rotatably arranged tension roller, wherein the rotary closure is driven by means of an electric motor, and wherein the transfer of the rotational motion of the electric motor to the tension roller occurs via a transmission, wherein the transmission comprises: - a first spur gear stage, wherein a spur gear of the first spur gear stage meshes with a drive pinion of the electric motor and wherein a pinion, connected to the spur gear of the first spur gear stage in a rotationally fixed manner, meshes with a spur gear of a second spur gear stage, - a second spur gear stage, wherein the spur gear of the second spur gear stage is connected to a worm of a worm gear (16, 17) in a rotationally fixed manner, - a worm gear (16, 17), wherein the worm meshes with a worm wheel, wherein the tension roller is connected to the worm wheel in a rotationally fixed manner, characterized in that that the rotary closure is arranged on the instep of the shoe, wherein a first tensioning element is arranged which runs on the lateral side of the shoe upper and wherein a second tensioning element is arranged which runs on the medial side of the shoe upper, wherein both tensioning elements (4, 5) are fixed with their both ends (21, 22, 23, 24) at the tension roller, wherein the first tensioning element forms a closed curve at the lateral side of the shoe upper and wherein the second tensioning element forms a closed curve at the medial side of the shoe upper. - a first spur gear stage, wherein a spur gear of the first spur gear stage meshes with a drive pinion of the electric motor and wherein a pinion, connected to the spur gear of the first spur gear stage in a rotationally fixed manner, meshes with a spur gear of a second spur gear stage, - a second spur gear stage, wherein the spur gear of the second spur gear stage is connected to a worm of a worm gear (16, 17) in a rotationally fixed manner, - a worm gear (16, 17), wherein the worm meshes with a worm wheel, wherein the tension roller is connected to the worm wheel in a rotationally fixed manner,
An information transmission method, comprising: determining, by a terminal device at a moment n, that a beam failure occurs on a physical downlink control channel PDCCH on a first control resource set; and if the terminal device detects, within a first time period after the moment n, that channel quality of the PDCCH on the first control resource set meets a first preset condition, canceling, by the terminal device, sending of beam failure recovery request information, and/or stopping, by the terminal device, timing of a beam failure recovery clock; wherein an end moment of the first time period is earlier than or equal to a moment at which the terminal device receives reconfigured quasi co-location QCL assumption information for the first time after receiving beam failure recovery response information. determining, by a terminal device at a moment n, that a beam failure occurs on a physical downlink control channel PDCCH on a first control resource set; and if the terminal device detects, within a first time period after the moment n, that channel quality of the PDCCH on the first control resource set meets a first preset condition, canceling, by the terminal device, sending of beam failure recovery request information, and/or stopping, by the terminal device, timing of a beam failure recovery clock; wherein an end moment of the first time period is earlier than or equal to a moment at which the terminal device receives reconfigured quasi co-location QCL assumption information for the first time after receiving beam failure recovery response information.
A method of establishing a secure communications path between a first local server on a local network and a device on a wide area network, the method comprising: establishing a first secure communications connection between a second local server on the local network and the device; receiving, at the second local server, a request from the device on the wide area network for a connection with the first local server; sending, from the second local server, an initial request to the authentication server over the local network; receiving, at the second local server, a message from the authentication server including: an encrypted first part; and a second part; passing, from the second local server, the encrypted first part of the message to the device; and receiving, at the second local server, at least a portion of a decrypted first part of the message from the device over the first secure communications connection; establishing a second secure communications connection between the second local server and the first local server using security information to impersonate the device; and proxying, by the second local server, data between the first local server/24) and the device; wherein establishing the second secure communications connection between the second local server and the first local server uses as security information, the decrypted first portion of the message. establishing a first secure communications connection between a second local server on the local network and the device; receiving, at the second local server, a request from the device on the wide area network for a connection with the first local server; sending, from the second local server, an initial request to the authentication server over the local network; receiving, at the second local server, a message from the authentication server including: an encrypted first part; and a second part; an encrypted first part; and a second part; passing, from the second local server, the encrypted first part of the message to the device; and receiving, at the second local server, at least a portion of a decrypted first part of the message from the device over the first secure communications connection;
A non-naturally occurring zinc finger protein that binds to an Htt gene, the zinc finger protein comprising 4, 5 or 6 zinc finger domains ordered F1 to F4, F1 to F5 and F1 to F6, wherein the zinc finger domains comprise the recognition helix regions sequences shown in a single row of Table 1B.
An inkjet recording device comprising: an ink container that contains ink used to print on a printed object; a plurality of nozzles (8A, 8B) that are connected to the ink container, and from which the ink is ejected; a forked path connecting from the ink container to the plurality of nozzles (8A, 8B); a flow control valve installed on a pipe connecting from the forked path to the plurality of nozzles; a plurality of gutters (14A, 14B) that collect the ink not used in printing; a plurality of ink collection paths (212A to 215A, 212B to 215B) that are connected to the plurality of gutters (14A, 14B); and a plurality of ink collection pumps (25A, 25B) that are connected to the plurality of ink collection paths (212A to 215A, 212B to 215B), characterized by further comprising: a single exhaust air path for solvent vapor connected to the ink container. an ink container that contains ink used to print on a printed object; a plurality of nozzles (8A, 8B) that are connected to the ink container, and from which the ink is ejected; a forked path connecting from the ink container to the plurality of nozzles (8A, 8B); a flow control valve installed on a pipe connecting from the forked path to the plurality of nozzles; a plurality of gutters (14A, 14B) that collect the ink not used in printing; a plurality of ink collection paths (212A to 215A, 212B to 215B) that are connected to the plurality of gutters (14A, 14B); and a plurality of ink collection pumps (25A, 25B) that are connected to the plurality of ink collection paths (212A to 215A, 212B to 215B), characterized by further comprising: a single exhaust air path for solvent vapor connected to the ink container.
A method of controlling output bitrate of a video encoder encoding a video sequence, the method comprising: setting an allowable average bitrate, gathering encoding data by encoding video during a first time period and for each of a plurality of time intervals of the first time period, storing a respective output bitrate that was output during the time interval, and a quantisation parameter used for encoding during the respective time interval, for each time interval, normalising the output bitrate by calculating a corresponding normalised bitrate BR norm as a function BR norm = BR x ⋅ C QP x − QP nom 6 of the output bitrate BR x and the quantisation parameter QPX used during the respective time interval, where C takes a value between 2 and Euler's number e, the normalised bitrate being an estimate of a bitrate that would have been produced had instead a predetermined quantisation parameter QP nom been used during the time interval, the predetermined quantisation parameter being the same for all time intervals, calculating an average normalised bitrate over the first time period by averaging the normalised bitrates of the plurality of time intervals, calculating a new quantisation parameter based on a comparison of the average normalised bitrate and the allowable average bitrate, and encoding the video sequence using the new quantisation parameter during a second time period subsequent to the first time period. setting an allowable average bitrate, gathering encoding data by encoding video during a first time period and for each of a plurality of time intervals of the first time period, storing a respective output bitrate that was output during the time interval, and a quantisation parameter used for encoding during the respective time interval, for each time interval, normalising the output bitrate by calculating a corresponding normalised bitrate BR norm as a function BR norm = BR x ⋅ C QP x − QP nom 6 of the output bitrate BR x and the quantisation parameter QPX used during the respective time interval, where C takes a value between 2 and Euler's number e, the normalised bitrate being an estimate of a bitrate that would have been produced had instead a predetermined quantisation parameter QP nom been used during the time interval, the predetermined quantisation parameter being the same for all time intervals, calculating an average normalised bitrate over the first time period by averaging the normalised bitrates of the plurality of time intervals, calculating a new quantisation parameter based on a comparison of the average normalised bitrate and the allowable average bitrate, and encoding the video sequence using the new quantisation parameter during a second time period subsequent to the first time period.
Trench wall apparatus for creating a slit in the ground, comprising - a base frame extending in a longitudinal direction, - at least one soil removal device disposed at a lower end region of the base frame, - a holding device at an upper end region of the base frame, - a bracing device having at least two opposing clamping elements displaceable laterally, transversely to the longitudinal direction, and at least one adjusting element by means of which the clamping elements can be extended laterally for bracing at least a part of the trench wall apparatus in the slit, - an intermediate frame which is mounted so as to be displaceable along the base frame and on which the bracing device having the at least two clamping elements and the at least one adjusting element is arranged, and - a pressing device by means of which a pressing force can be applied to the at least one soil removal device, - wherein the pressing device is arranged between the intermediate frame and the base frame, characterised in that - the bracing device has at least two adjusting elements arranged perpendicularly to the longitudinal direction, wherein at least one first adjusting element is mounted, on the one hand, on the intermediate frame and, on the other hand, on a first clamping element, and at least one second adjusting element is mounted, on the one hand, on the intermediate frame and, on the other hand, on a second clamping element arranged to be opposite to the first clamping element, and - in that the first adjusting element and the second adjusting element are extendable perpendicularly to the longitudinal direction. - a base frame extending in a longitudinal direction, - at least one soil removal device disposed at a lower end region of the base frame, - a holding device at an upper end region of the base frame, - a bracing device having at least two opposing clamping elements displaceable laterally, transversely to the longitudinal direction, and at least one adjusting element by means of which the clamping elements can be extended laterally for bracing at least a part of the trench wall apparatus in the slit, - an intermediate frame which is mounted so as to be displaceable along the base frame and on which the bracing device having the at least two clamping elements and the at least one adjusting element is arranged, and - a pressing device by means of which a pressing force can be applied to the at least one soil removal device, - wherein the pressing device is arranged between the intermediate frame and the base frame, characterised in that - the bracing device has at least two adjusting elements arranged perpendicularly to the longitudinal direction, wherein at least one first adjusting element is mounted, on the one hand, on the intermediate frame and, on the other hand, on a first clamping element, and at least one second adjusting element is mounted, on the one hand, on the intermediate frame and, on the other hand, on a second clamping element arranged to be opposite to the first clamping element, and - in that the first adjusting element and the second adjusting element are extendable perpendicularly to the longitudinal direction.
A method of treating organic drainage and sludge comprising an anaerobic digestion treatment step, comprising: feeding an Mg source into a digested sludge resulted from the anaerobic digestion treatment step, thereby forming a crystallized substance of magnesium ammonium phosphate, separating the crystallized substance of magnesium ammonium phosphate and heavy metal-containing particles from the digested sludge by subjecting the digested sludge to a foreign substance removal step by means of a sifter and subsequently to a fine particle condensation step by means of a liquid cyclone, and recovering the crystallized substance of magnesium ammonium phosphate and the heavy metal-containing particles separately by subjecting the sludge to at least two types of steps of a fine particle separation step by flowing-film separation, a fine particle separation step utilizing the difference in the sedimentation rate of the fine particles, a fine particle separation step by a jig, a fine particle separation step utilizing one or more types of sifters, and a fine particle separation step by means of a magnetic force sorter. feeding an Mg source into a digested sludge resulted from the anaerobic digestion treatment step, thereby forming a crystallized substance of magnesium ammonium phosphate, separating the crystallized substance of magnesium ammonium phosphate and heavy metal-containing particles from the digested sludge by subjecting the digested sludge to a foreign substance removal step by means of a sifter and subsequently to a fine particle condensation step by means of a liquid cyclone, and recovering the crystallized substance of magnesium ammonium phosphate and the heavy metal-containing particles separately by subjecting the sludge to at least two types of steps of a fine particle separation step by flowing-film separation, a fine particle separation step utilizing the difference in the sedimentation rate of the fine particles, a fine particle separation step by a jig, a fine particle separation step utilizing one or more types of sifters, and a fine particle separation step by means of a magnetic force sorter.
A method for enabling secure communications between an implantable medical device and an external device over a telemetry channel, comprising: implementing a telemetry interlock which limits communications between the ED and the IMD over the telemetry channel, wherein a data communications session over the telemetry channel can be established which allows transmission of data from the IMD to the ED if the telemetry interlock is not released, but programming of the IMD by the ED cannot be performed unless the telemetry interlock is released; releasing the telemetry interlock by transmitting an enable command to the IMD via a short-range communications channel requiring physical proximity to the IMD; authenticating the IMD to the ED when the ED receives a message from the IMD evidencing use of an encryption key expected to be possessed by the IMD; authenticating the ED to the IMD when the IMD receives a message from the ED evidencing use of an encryption key expected to be possessed by the ED; and, allowing a data communications session between the IMD and ED over the telemetry channel to occur only after the IMD and ED have been authenticated to one other. implementing a telemetry interlock which limits communications between the ED and the IMD over the telemetry channel, wherein a data communications session over the telemetry channel can be established which allows transmission of data from the IMD to the ED if the telemetry interlock is not released, but programming of the IMD by the ED cannot be performed unless the telemetry interlock is released; releasing the telemetry interlock by transmitting an enable command to the IMD via a short-range communications channel requiring physical proximity to the IMD; authenticating the IMD to the ED when the ED receives a message from the IMD evidencing use of an encryption key expected to be possessed by the IMD; authenticating the ED to the IMD when the IMD receives a message from the ED evidencing use of an encryption key expected to be possessed by the ED; and, allowing a data communications session between the IMD and ED over the telemetry channel to occur only after the IMD and ED have been authenticated to one other.
A programmable logic controller, PLC, controller comprising a control CPU configured to perform control operations of the PLC and a service CPU configured to perform service operations of the PLC controller, such service operations excluding the control operations; the control CPU and the service CPU being configured as separate elements in the PLC controller and configured to perform their respective operations independently, characterized in, that the control CPU comprises a first media access control, MAC, communications layer and is configured to generate control operation data necessary for control operation of the PLC controller, perform control operation based on the generated control operation data, and transmit the control operation data to the service CPU via the first MAC communications layer; and that the service CPU comprises a second MAC communications layer and is configured to receive said control operation data via the first MAC communications layer and configured to generate service operation data, perform service operation, based on at least one of the generated service operation data and the received control operation data, and to transmit the service operation data to the control CPU via the second MAC communications layer, wherein the control CPU is connected to a control memory in which said control operation data is stored at a first predetermined location, and the service CPU is configured to acquire said control operation data from the control memory by a direct memory access, DMA, scheme; and wherein the service CPU is connected to a service memory in which said service operation data is stored at a second predetermined location, and the control CPU is configured to acquire said service operation data from the service memory by the DMA scheme. that the control CPU comprises a first media access control, MAC, communications layer and is configured to generate control operation data necessary for control operation of the PLC controller, perform control operation based on the generated control operation data, and transmit the control operation data to the service CPU via the first MAC communications layer; and that the service CPU comprises a second MAC communications layer and is configured to receive said control operation data via the first MAC communications layer and configured to generate service operation data, perform service operation, based on at least one of the generated service operation data and the received control operation data, and to transmit the service operation data to the control CPU via the second MAC communications layer, wherein the control CPU is connected to a control memory in which said control operation data is stored at a first predetermined location, and the service CPU is configured to acquire said control operation data from the control memory by a direct memory access, DMA, scheme; and wherein the service CPU is connected to a service memory in which said service operation data is stored at a second predetermined location, and the control CPU is configured to acquire said service operation data from the service memory by the DMA scheme.