mhurhangee/ep-ind-claims huggingface dataset:
An aerosol provision system comprising: control circuitry for determining an operational parameter of the aerosol provision system; an aerosol generator configured to aerosolize an aerosol-generating material; a sensor configured to detect an inhalation on the aerosol provision system by a user of the aerosol provision system, and output corresponding inhalation detection signals to the control circuitry; and wherein the control circuitry is configured to: determine a duration of the inhalation based on the inhalation detection signals received from the sensor, and determine an indication of an amount of an ingredient delivered from the aerosol-generating material to the user during the inhalation based on the duration of the inhalation and an indication of the operational parameter during the inhalation, further comprising a power source configured to supply electrical power to the aerosol generator, characterised in that the operational parameter of the system is an amount of electrical power supplied to the aerosol generator by the power source. control circuitry for determining an operational parameter of the aerosol provision system; an aerosol generator configured to aerosolize an aerosol-generating material; a sensor configured to detect an inhalation on the aerosol provision system by a user of the aerosol provision system, and output corresponding inhalation detection signals to the control circuitry; and wherein the control circuitry is configured to: determine a duration of the inhalation based on the inhalation detection signals received from the sensor, and determine an indication of an amount of an ingredient delivered from the aerosol-generating material to the user during the inhalation based on the duration of the inhalation and an indication of the operational parameter during the inhalation, further comprising a power source configured to supply electrical power to the aerosol generator, characterised in that the operational parameter of the system is an amount of electrical power supplied to the aerosol generator by the power source. determine a duration of the inhalation based on the inhalation detection signals received from the sensor, and determine an indication of an amount of an ingredient delivered from the aerosol-generating material to the user during the inhalation based on the duration of the inhalation and an indication of the operational parameter during the inhalation, further comprising a power source configured to supply electrical power to the aerosol generator, characterised in that the operational parameter of the system is an amount of electrical power supplied to the aerosol generator by the power source.
Adhesive composition comprising a component A and a component B, wherein said component A comprises: - bisphenol A resin; - a hydrophilic solvent; and - silica (SiO 2) or alumina (Al 2 O 3) gel; and said component B comprises: - aliphatic or aromatic polyamines; - polythiol; - a combination of primary and tertiary amines; - optionally a hydrophilic solvent, and - optionally silica (SiO 2) or alumina (Al 2 O 3) gel. wherein the hydrophilic solvent is acetone, ethanol or a mixture thereof; wherein each component of component A has the following concentrations: bisphenol A resin between 35 and 45% by weight, hydrophilic solvent between 10 and 15% by weight and SiO 2 or Al 2 O 3 between 10 and 15% by weight, over the total composition; and wherein each component of component B has the following concentrations: aliphatic or aromatic polyamines between 30 and 40% by weight, polythiol between 3 and 4.5% by weight, combination of primary and tertiary amines between 0.5 and 2.5% by weight, over the total composition. - bisphenol A resin; - a hydrophilic solvent; and - silica (SiO 2) or alumina (Al 2 O 3) gel; - aliphatic or aromatic polyamines; - polythiol; - a combination of primary and tertiary amines; - optionally a hydrophilic solvent, and - optionally silica (SiO 2) or alumina (Al 2 O 3) gel.
A video decoding method, which decodes a current picture of a main bitstream, comprising: Decoding the reference information of the current picture of the main bitstream to obtain the information that the reference picture of the current picture contains a library picture and the index 'Lib _index' of the library picture referenced by the current picture; If the library picture with index 'Lib_index' does not exist in the decoded picture buffer, the decoder of the main bitstream providing the index 'Lib_index' of the library picture referenced by the current picture to the outside of the decoder, obtaining the library picture corresponding to the index 'Lib_index' from the outside, and updating the library picture in the decoded picture buffer, according to the said index 'Lib_index' of the library picture and the size of the library picture buffer in the decoded picture buffer, wherein the size of the library picture buffer is less than or equal to the size of the decoded picture buffer; Decoding the current picture by using the reference pictures containing the library picture in the decoded picture buffer, wherein the library picture corresponds to the said index 'Lib_index'. Decoding the reference information of the current picture of the main bitstream to obtain the information that the reference picture of the current picture contains a library picture and the index 'Lib _index' of the library picture referenced by the current picture; If the library picture with index 'Lib_index' does not exist in the decoded picture buffer, the decoder of the main bitstream providing the index 'Lib_index' of the library picture referenced by the current picture to the outside of the decoder, obtaining the library picture corresponding to the index 'Lib_index' from the outside, and updating the library picture in the decoded picture buffer, according to the said index 'Lib_index' of the library picture and the size of the library picture buffer in the decoded picture buffer, wherein the size of the library picture buffer is less than or equal to the size of the decoded picture buffer; Decoding the current picture by using the reference pictures containing the library picture in the decoded picture buffer, wherein the library picture corresponds to the said index 'Lib_index'.
A feed system for delivering liquid feed to animals including: a feed apparatus (10, 250), including: a plurality of liquid feed sources (12, 250), wherein one of the liquid feed sources includes a milk vessel, and another of the liquid feed sources includes a milk replacer system; a plurality of common supply lines (14, 232), each connected to one of the liquid feed sources; wherein the milk replacer system includes: a mixing vessel in which the milk replacer is mixed; and a distribution vessel which receives mixed milk replacer from the mixing vessel, and is connected to the common supply line associated with the milk replacer system, and a holding vessel into which milk replacer may be diverted from the common supply line associated with the milk replacer system; and a plurality of animal feeding stalls having a fluid connection to each of the common supply lines along their lengths. a feed apparatus (10, 250), including: a plurality of liquid feed sources (12, 250), wherein one of the liquid feed sources includes a milk vessel, and another of the liquid feed sources includes a milk replacer system; a plurality of common supply lines (14, 232), each connected to one of the liquid feed sources; wherein the milk replacer system includes: a mixing vessel in which the milk replacer is mixed; and a distribution vessel which receives mixed milk replacer from the mixing vessel, and is connected to the common supply line associated with the milk replacer system, and a holding vessel into which milk replacer may be diverted from the common supply line associated with the milk replacer system; and a plurality of liquid feed sources (12, 250), wherein one of the liquid feed sources includes a milk vessel, and another of the liquid feed sources includes a milk replacer system; a plurality of common supply lines (14, 232), each connected to one of the liquid feed sources; wherein the milk replacer system includes: a mixing vessel in which the milk replacer is mixed; and a distribution vessel which receives mixed milk replacer from the mixing vessel, and is connected to the common supply line associated with the milk replacer system, and a holding vessel into which milk replacer may be diverted from the common supply line associated with the milk replacer system; and a mixing vessel in which the milk replacer is mixed; and a distribution vessel which receives mixed milk replacer from the mixing vessel, and is connected to the common supply line associated with the milk replacer system, and a holding vessel into which milk replacer may be diverted from the common supply line associated with the milk replacer system; and a plurality of animal feeding stalls having a fluid connection to each of the common supply lines along their lengths.
Hemodialysis apparatus comprising: a pre-filling liquid source providing a pre-filling liquid, a dialysate side comprising a dialysate chamber of a dialyzer which has a membrane, a dialysate pump which pumps dialysate to the dialysate chamber, a suction pump which pumps the dialysate or the pre-filling liquid away from the dialysate chamber, and a dialysate pressure sensor between the dialysate chamber and a waste pump, and a blood side comprising an arterial line, a blood pump, a blood chamber of the dialyzer and a venous line, wherein the hemodialysis apparatus with the arterial and venous lines (42, 44) being pre-filled with pre-filling liquid from the pre-filling liquid source, with the arterial and venous lines (42, 44) each being applied to a patient, and after manual triggering of the removal of the pre-filling liquid, performs the following method steps for starting a hemodialysis: pre-filling liquid removal by ultrafiltration of the pre-filling liquid from the arterial and venous lines (42, 44) via the dialyzer membrane into the dialysate chamber of the dialyzer by the suction pump, and during the pre-filling liquid removal: continuous determination of the fluid pressure by the dialysate pressure sensor, wherein the pre-filling liquid removal is stopped automatically, if the fluid pressure measured by the dialysate pressure sensor falls below a specified blood arrival limit pressure. a pre-filling liquid source providing a pre-filling liquid, a dialysate side comprising a dialysate chamber of a dialyzer which has a membrane, a dialysate pump which pumps dialysate to the dialysate chamber, a suction pump which pumps the dialysate or the pre-filling liquid away from the dialysate chamber, and a dialysate pressure sensor between the dialysate chamber and a waste pump, and a blood side comprising an arterial line, a blood pump, a blood chamber of the dialyzer and a venous line, wherein the hemodialysis apparatus with the arterial and venous lines (42, 44) being pre-filled with pre-filling liquid from the pre-filling liquid source, with the arterial and venous lines (42, 44) each being applied to a patient, and after manual triggering of the removal of the pre-filling liquid, performs the following method steps for starting a hemodialysis: pre-filling liquid removal by ultrafiltration of the pre-filling liquid from the arterial and venous lines (42, 44) via the dialyzer membrane into the dialysate chamber of the dialyzer by the suction pump, and during the pre-filling liquid removal: continuous determination of the fluid pressure by the dialysate pressure sensor, wherein the pre-filling liquid removal is stopped automatically, if the fluid pressure measured by the dialysate pressure sensor falls below a specified blood arrival limit pressure.
A vacuum cleaner comprising: a main casing; a driving wheel for enabling the main casing to travel; control means for controlling drive of the driving wheel to make the main casing autonomously travel; abnormality detection means (31, 38, 39, 61, 65, 67) for detecting an abnormality; image pickup means for picking up an image; and transmission means for externally transmitting an image picked up by the image pickup means, characterized in that, the abnormality detection means (31, 38, 39, 61, 65, 67) detects an abnormal state of the vacuum cleaner and the control means has a cleaning mode for cleaning a cleaning-object surface, an image pickup mode for performing image pickup by the image pickup means, and a standby mode applied during a standby state, wherein when an abnormality is detected by the abnormality detection means (31, 38, 39, 61, 65, 67) during the cleaning mode, the control means is switched over to the image pickup mode to perform image pickup by the image pickup means at the position of this occurrence, and making the transmission means externally transmit the picked-up image thereby notifying the position of the vacuum cleaner. a main casing; a driving wheel for enabling the main casing to travel; control means for controlling drive of the driving wheel to make the main casing autonomously travel; abnormality detection means (31, 38, 39, 61, 65, 67) for detecting an abnormality; image pickup means for picking up an image; and transmission means for externally transmitting an image picked up by the image pickup means, characterized in that, the abnormality detection means (31, 38, 39, 61, 65, 67) detects an abnormal state of the vacuum cleaner and the control means has a cleaning mode for cleaning a cleaning-object surface, an image pickup mode for performing image pickup by the image pickup means, and a standby mode applied during a standby state, wherein when an abnormality is detected by the abnormality detection means (31, 38, 39, 61, 65, 67) during the cleaning mode, the control means is switched over to the image pickup mode to perform image pickup by the image pickup means at the position of this occurrence, and making the transmission means externally transmit the picked-up image thereby notifying the position of the vacuum cleaner.
A method for localizing a mobile station, said method comprising: logging (232, 242) one or more wireless channels which belong to one or more network providers other than the mobile station's home network provider and which substantially currently provide communication with one or more discemable base stations; and establishing (213,214) a geographic position of the mobile station by use of the one or more wireless channels which belong to the one or more network providers other than the mobile station's home network provider; wherein said logging one or more wireless channels which belong to one or more network providers other than the mobile station's home network comprises: selecting one of a previously unselected wireless mode or a previously unselected frequency band of the mobile station; and logging (232,242) one or more channels which provide communication with one or more discernable base stations using said previously unselected wireless mode or said previously unselected frequency band, said logging by passively monitoring and irrespective of the one or more network providers to whom the channels belong. logging (232, 242) one or more wireless channels which belong to one or more network providers other than the mobile station's home network provider and which substantially currently provide communication with one or more discemable base stations; and establishing (213,214) a geographic position of the mobile station by use of the one or more wireless channels which belong to the one or more network providers other than the mobile station's home network provider; wherein said logging one or more wireless channels which belong to one or more network providers other than the mobile station's home network comprises: selecting one of a previously unselected wireless mode or a previously unselected frequency band of the mobile station; and logging (232,242) one or more channels which provide communication with one or more discernable base stations using said previously unselected wireless mode or said previously unselected frequency band, said logging by passively monitoring and irrespective of the one or more network providers to whom the channels belong. selecting one of a previously unselected wireless mode or a previously unselected frequency band of the mobile station; and logging (232,242) one or more channels which provide communication with one or more discernable base stations using said previously unselected wireless mode or said previously unselected frequency band, said logging by passively monitoring and irrespective of the one or more network providers to whom the channels belong.
A block boundary node comprising a connection controller, a link resource manager and a route controller, the block boundary node having block information in wavelength conversion, characterized in that, the connection controller is configured to send a request for querying block information to the link resource manager after receiving a connection request message, query and verify block information of an ingress subnet point of a local terminal, query block information of an egress subnet point of an egress boundary node after the verification is passed, and send a route query request to the route controller by using the block information of the ingress subnet point of the local terminal and the block information of the egress subnet point of the egress boundary node as query parameters; the link resource manager is configured to feed the block information of the ingress subnet point of the local terminal back to the connection controller in response to the request for querying block information of the connection controller; and the route controller is configured to provide route information for setting up a connection in response to the route query request; wherein the block information of the ingress subnet point comprises interchangeability between the ingress subnet point and other subnet points of the local terminal in a route domain, and the block information of the egress subnet point comprises interchangeability between the egress subnet point and other subnet points of the egress boundary node in the route domain.
An apparatus for rejecting common-mode input voltage variations in a differential sampler comprising: a first sampler (ktp, kbp, kct, Cs), configured to sample a first voltage (vinp) of a differential input signal, at a given time, the first voltage having a first common mode component; a second sampler (ktp, kbp, kct, Cs), configured to sample a second voltage (vinm) of the differential input signal, at the given time, the second voltage having a second common mode component; a circuit configured to sense common-mode variations in the first and second voltages, the circuit detecting such common-mode variations as a corresponding common mode voltage (Vcmi); a third sampler (kbp, Ci), configured to sample the common mode voltage (Vcmi), at the given time; a discharge path connected to the first and second sampler and also connected to a common discharge node (Vdch), to provide a common path for discharging sampled charge for each of the first and second samplers; characterized by: a fixed voltage source (Ccmc), configured to maintain the discharge node (Vdch), at a substantially constant voltage difference with respect to the common mode voltage (Vcmi). a first sampler (ktp, kbp, kct, Cs), configured to sample a first voltage (vinp) of a differential input signal, at a given time, the first voltage having a first common mode component; a second sampler (ktp, kbp, kct, Cs), configured to sample a second voltage (vinm) of the differential input signal, at the given time, the second voltage having a second common mode component; a circuit configured to sense common-mode variations in the first and second voltages, the circuit detecting such common-mode variations as a corresponding common mode voltage (Vcmi); a third sampler (kbp, Ci), configured to sample the common mode voltage (Vcmi), at the given time; a discharge path connected to the first and second sampler and also connected to a common discharge node (Vdch), to provide a common path for discharging sampled charge for each of the first and second samplers; characterized by: a fixed voltage source (Ccmc), configured to maintain the discharge node (Vdch), at a substantially constant voltage difference with respect to the common mode voltage (Vcmi).
A traction element (100, 300) with a substantially straight stretched shaft section and with at least one loop made of fiber-reinforced plastic at one end of the shaft section, wherein the traction element (100, 300) has a plurality of fibers in the shaft section, said fibres substantially run parallel to each other, wherein the loop is formed from the plurality of fibers by a first group of fibers (124a, 124b, 124c) of fibers of the plurality of fibers being turned over along the loop in a first turning direction while a second group of fibers ends (128a, 128b, 128c) of fibers of the plurality of fibers is turned over along the loop in a second turning direction, which is opposed to the first turning direction, and wherein some turned-over fibers ends of both groups end in a different distance from the vertex of the loop than others of the turned-over fibers ends, so that a cross-section of the traction element (100, 300) that results from a respective number of fibers running approximately parallel to each other and turned-over fibers ends decreases approximately continuously until it reaches the cross-section size of the shaft section of the traction element (100, 300) outside the turning-over section.
A method for communication by a sender user equipment, UE, the method comprising: dividing a destination identifier, ID, into a first part of the destination ID and a second part of the destination ID; dividing a source ID which identifies the sender UE, into a first part of the source ID and a second part of the source ID; transmitting a scheduling assignment including the first part of the destination ID used for filtering packets received at a physical layer of a receiver user equipment, UE, which is a destination of data, and the first part of the source ID; and transmitting a medium access control, MAC, protocol data unit, PDU, including a MAC header including the second part of the destination ID and the second part of the source ID used for filtering packets received at a MAC layer of the receiver user equipment, UE, which is the destination of data, wherein the first part of the destination ID comprises of n least significant bits, LSBs, of the destination ID, and the second part of the destination ID comprises of remaining most significant bits, MSBs, of the destination ID. dividing a destination identifier, ID, into a first part of the destination ID and a second part of the destination ID; dividing a source ID which identifies the sender UE, into a first part of the source ID and a second part of the source ID; transmitting a scheduling assignment including the first part of the destination ID used for filtering packets received at a physical layer of a receiver user equipment, UE, which is a destination of data, and the first part of the source ID; and transmitting a medium access control, MAC, protocol data unit, PDU, including a MAC header including the second part of the destination ID and the second part of the source ID used for filtering packets received at a MAC layer of the receiver user equipment, UE, which is the destination of data, wherein the first part of the destination ID comprises of n least significant bits, LSBs, of the destination ID, and the second part of the destination ID comprises of remaining most significant bits, MSBs, of the destination ID.