mhurhangee/patent-ind-claim-en huggingface dataset:
A system comprising: - a device for calculating construction assistance information, - a vibratory hammer construction machine , and - a display unit configured to display a result of calculation of the calculation unit which the device for calculating construction assistance information has, wherein the device comprises: an acquisition unit configured to acquire information, which contains at least values indicating a eccentricity force Fi of a vibratory hammer which a vibratory hammer construction machine imparts to a construction object, the number of impacts N, and a depth d of penetration of the construction object, from the vibratory hammer construction machine characterized in that, the system comprises a calculation unit configured to calculate a value of a product of the eccentricity force Fi and the number of impacts N divided by penetration depth d of the construction object, and to calculate an accumulated impact force Ev on the basis of the eccentricity force Fi, the accumulated impact force Ev indicating a work load of construction caused by the vibratory hammer , wherein Ev is given by: E v = ∑ i = 1 N F i / d wherein the eccentricity force Fi, the number of impacts N, and the penetration depth d is contained in the information acquired by the acquisition unit , and wherein the device determines the end of construction of the construction object by the vibratory hammer construction machine when the accumulated impact force Ev calculated by the calculation unit is equal to or greater than a predetermined value. - a device for calculating construction assistance information, - a vibratory hammer construction machine , and - a display unit configured to display a result of calculation of the calculation unit which the device for calculating construction assistance information has, an acquisition unit configured to acquire information, which contains at least values indicating a eccentricity force Fi of a vibratory hammer which a vibratory hammer construction machine imparts to a construction object, the number of impacts N, and a depth d of penetration of the construction object, from the vibratory hammer construction machine characterized in that, the system comprises a calculation unit configured to calculate a value of a product of the eccentricity force Fi and the number of impacts N divided by penetration depth d of the construction object, and to calculate an accumulated impact force Ev on the basis of the eccentricity force Fi, the accumulated impact force Ev indicating a work load of construction caused by the vibratory hammer , wherein Ev is given by: E v = ∑ i = 1 N F i / d wherein the eccentricity force Fi, the number of impacts N, and the penetration depth d is contained in the information acquired by the acquisition unit , and wherein the device determines the end of construction of the construction object by the vibratory hammer construction machine when the accumulated impact force Ev calculated by the calculation unit is equal to or greater than a predetermined value.
A medical system comprising a catheter configured to be inserted into a body part of a living subject, and including: a deflectable element having a distal end; an expandable distal end assembly disposed at the distal end of the deflectable element, and comprising a plurality of electrodes, a distal portion, and a proximal portion, and configured to expand from a collapsed form to an expanded deployed form; and characterised by a stretchable irrigation tube disposed between the distal portion and the proximal portion, and comprising a plurality of irrigation holes, and configured to stretch longitudinally when the distal end assembly is collapsed from the expanded deployed form to the collapsed form. a deflectable element having a distal end; an expandable distal end assembly disposed at the distal end of the deflectable element, and comprising a plurality of electrodes, a distal portion, and a proximal portion, and configured to expand from a collapsed form to an expanded deployed form; and characterised by a stretchable irrigation tube disposed between the distal portion and the proximal portion, and comprising a plurality of irrigation holes, and configured to stretch longitudinally when the distal end assembly is collapsed from the expanded deployed form to the collapsed form.
Exhaust gas heating unit for an exhaust system of an internal combustion engine, comprising: - at least one jacket heating conductor element with a jacket and with an electrical heating conductor , which extends in the jacket and is enclosed by insulating material , and - a heat transfer surface formation , which is arranged on an outer side of the jacket of the at least one jacket heating conductor element and is in heat transfer contact with it, wherein the heat transfer surface formation comprises at least one heat transfer element extending in a meandering manner along the jacket heating conductor element with a plurality of heat transfer element sections , which pass over one into the other in bent areas and are arranged following one another in a longitudinal direction (M) of the jacket heating conductor element , wherein a passage opening , through which the at least one jacket heating conductor element passes, is formed in each heat transfer element sections , in association with the jacket heating conductor element , characterized in that a collar , which encloses the passage opening formed in the heat transfer element section , projects from the heat transfer element section and is in contact with the jacket heating conductor element, is provided at at least one heat transfer element section . - at least one jacket heating conductor element with a jacket and with an electrical heating conductor , which extends in the jacket and is enclosed by insulating material , and - a heat transfer surface formation , which is arranged on an outer side of the jacket of the at least one jacket heating conductor element and is in heat transfer contact with it,
Method for heat treatment of an austenitic steel of the High Nitrogen Steel or austenitic HNS type, or of an austenitic steel of the High Interstitial Steel or austenitic HIS type, said austenitic HNS or austenitic HIS containing precipitates of nitrides, carbides or carbonitrides of chromium and/or of molybdenum, this method comprising a step of: • before machining, make chromium and/or molybdenum nitride, carbide or carbonitride type precipitates appear in the austenitic HNS or austenitic HIS, this result being obtained by providing an austenitic HNS or austenitic HIS alloy which is brought to its austenitizing temperature or sintered at the austenitizing temperature, then this austenitic HNS or austenitic HIS alloy is subjected to a cooling heat treatment immediately from the austenitizing temperature, the cooling of the resulting austenitic HNS or austenitic HIS being interrupted when the temperature reaches a value at which the precipitates appear, this austenitic HNS or austenitic HIS being maintained at this temperature and for a duration such that the precipitates appear, and then finally the austenitic HNS or austenitic HIS is returned to ambient temperature; this method further comprising a step consisting in: • after machining the austenitic HNS or austenitic HIS containing the precipitates, in putting again the precipitates in solution by bringing the austenitic HNS or austenitic HIS to its austenitizing temperature, then by cooling the austenitic HNS or austenitic HIS sufficiently rapidly to avoid the re-formation of precipitates. • before machining, make chromium and/or molybdenum nitride, carbide or carbonitride type precipitates appear in the austenitic HNS or austenitic HIS, this result being obtained by providing an austenitic HNS or austenitic HIS alloy which is brought to its austenitizing temperature or sintered at the austenitizing temperature, then this austenitic HNS or austenitic HIS alloy is subjected to a cooling heat treatment immediately from the austenitizing temperature, the cooling of the resulting austenitic HNS or austenitic HIS being interrupted when the temperature reaches a value at which the precipitates appear, this austenitic HNS or austenitic HIS being maintained at this temperature and for a duration such that the precipitates appear, and then finally the austenitic HNS or austenitic HIS is returned to ambient temperature; • after machining the austenitic HNS or austenitic HIS containing the precipitates, in putting again the precipitates in solution by bringing the austenitic HNS or austenitic HIS to its austenitizing temperature, then by cooling the austenitic HNS or austenitic HIS sufficiently rapidly to avoid the re-formation of precipitates.
A process of making paper or paperboard in which a cellulosic thin stock is provided and subjected to one or more shear stages and then drained and a moving screen to form a sheet which is dried, wherein the process employs a retention system which is applied to the thin stock, said retention system comprising as components i) a blend of different cationic polymers and ii) a microparticulate material, in which the blend of cationic polymers comprises, a) a cationic polymer having a charge density of from 0.5 and up to 2.0 mEq per gram and a molar mass of greater than 700,000 Da, which cationic polymer is selected from polymers containing vinyl amine units and polyethylenimine, in which the dose of cationic polymer (a) is at least 50 ppm and as high as 3000 ppm, b) a cationic polymer having a charge density of below 3 mEq per gram and an intrinsic viscosity of at least 4 dl/g, which is a copolymer of bi) water-soluble cationic ethylenically unsaturated monomers selected from the group consisting of quaternary or acid salts of dialkyl amino alkyl (meth) acrylates, quaternary or acid salts of dialkyl amino alkyl (meth) acrylamides and dialkyl diallyl ammonium halides; bii) water-soluble non-ionic ethylenically unsaturated monomers selected from the group consisting of acrylamide and methacrylamide, in which the dose of cationic polymer (b) is at least 50 ppm and up to 1000 ppm, in which the microparticulate material (ii) is selected from the group consisting of silica based particles, silica microgels, colloidal silica, silica sols, silica gels, polysilicates, cationic silica, aluminosilicates, polyaluminosilicates, borosilicates, polyborosilicates, zeolites, bentonite, hectorite, smectites, montmorillonites, nontronites, saponite, sauconite, hormites, attapulgites and sepiolites, wherein i) the blend of cationic polymers is dosed into the thin stock prior to the final shearing stage and ii) the microparticulate material is dosed into the thin stock after the final shearing stage. i) a blend of different cationic polymers and ii) a microparticulate material, a) a cationic polymer having a charge density of from 0.5 and up to 2.0 mEq per gram and a molar mass of greater than 700,000 Da, which cationic polymer is selected from polymers containing vinyl amine units and polyethylenimine, in which the dose of cationic polymer (a) is at least 50 ppm and as high as 3000 ppm, b) a cationic polymer having a charge density of below 3 mEq per gram and an intrinsic viscosity of at least 4 dl/g, which is a copolymer of bi) water-soluble cationic ethylenically unsaturated monomers selected from the group consisting of quaternary or acid salts of dialkyl amino alkyl (meth) acrylates, quaternary or acid salts of dialkyl amino alkyl (meth) acrylamides and dialkyl diallyl ammonium halides; bii) water-soluble non-ionic ethylenically unsaturated monomers selected from the group consisting of acrylamide and methacrylamide,
A system for use with an internal combustion engine configured to produce an exhaust gas flow, the system comprising: an exhaust gas passageway , at least a portion of the exhaust gas passageway comprising: a primary passageway ; an injector passageway adjacent to, and sharing a first divider wall with, the primary passageway , the first divider wall including an injector aperture , the injector passageway comprising a portion that is located at a bend ; and a reductant injector exposed in the primary passageway through the injector aperture , an end of the reductant injector in a flow path defined by the injector passageway , the reductant injector configured to release a reductant into the primary passageway and a catalyst located downstream of the reductant injector , the catalyst configured to receive a primary flow through the primary passageway , the primary flow mixed with the reductant; the system being characterised in that the portion of the exhaust gas passageway further comprises: a bypass passageway adjacent to, and sharing a second divider wall with, the primary passageway , the second divider wall and the first divider wall located at opposite sides of a centerline of the primary passageway ; and in that the reductant injector is configured to release a reductant towards the bypass passageway . an exhaust gas passageway , at least a portion of the exhaust gas passageway comprising: a primary passageway ; an injector passageway adjacent to, and sharing a first divider wall with, the primary passageway , the first divider wall including an injector aperture , the injector passageway comprising a portion that is located at a bend ; and a primary passageway ; an injector passageway adjacent to, and sharing a first divider wall with, the primary passageway , the first divider wall including an injector aperture , the injector passageway comprising a portion that is located at a bend ; and a reductant injector exposed in the primary passageway through the injector aperture , an end of the reductant injector in a flow path defined by the injector passageway , the reductant injector configured to release a reductant into the primary passageway and a catalyst located downstream of the reductant injector , the catalyst configured to receive a primary flow through the primary passageway , the primary flow mixed with the reductant; the system being characterised in that the portion of the exhaust gas passageway further comprises: a bypass passageway adjacent to, and sharing a second divider wall with, the primary passageway , the second divider wall and the first divider wall located at opposite sides of a centerline of the primary passageway ; and in that the reductant injector is configured to release a reductant towards the bypass passageway .
A method for dispensing a travel path applicant, the method comprising: defining a geofenced area around a geographic area, wherein the geographic area comprises a plurality of travel paths; electronically monitoring the location of a vehicle to determine whether the vehicle has entered the geofenced area; and after determining that the vehicle has entered the geofenced area, automatically adjusting dispensing of a travel path applicant on the travel path. defining a geofenced area around a geographic area, wherein the geographic area comprises a plurality of travel paths; electronically monitoring the location of a vehicle to determine whether the vehicle has entered the geofenced area; and after determining that the vehicle has entered the geofenced area, automatically adjusting dispensing of a travel path applicant on the travel path.
A method for wireless communication at a user equipment, UE , comprising: receiving, from a base station, a plurality of downlink control information DCI, messages that include a plurality of transmit power control, TPC, commands for an uplink transmission ; determining a power adjustment value for the uplink transmission based at least in part on a combination of the plurality of TPC commands, the combination of the plurality of TPC commands including at least a first TPC command of a first DCI message and a second TPC command of a second DCI message; adjusting a transmit power level based at least in part on the determined power adjustment value; and transmitting the uplink transmission to the base station at the adjusted transmit power level. receiving, from a base station, a plurality of downlink control information DCI, messages that include a plurality of transmit power control, TPC, commands for an uplink transmission ; determining a power adjustment value for the uplink transmission based at least in part on a combination of the plurality of TPC commands, the combination of the plurality of TPC commands including at least a first TPC command of a first DCI message and a second TPC command of a second DCI message; adjusting a transmit power level based at least in part on the determined power adjustment value; and transmitting the uplink transmission to the base station at the adjusted transmit power level.
A system for facilitating detecting an unauthorized access to an object, the system comprising: a plurality of ultra-wideband, UWB, communication nodes ; a controller operatively coupled to said plurality of UWB communication nodes , wherein the controller is configured to: cause at least one of the UWB communication nodes to transmit one or more UWB messages to other UWB communication nodes of said plurality of UWB communication nodes ; receive a channel impulse response, CIR, estimate and/or one or more parameters relating to said CIR output by the UWB communication nodes in response to receiving said UWB messages; analyze said CIR estimate and/or said parameters relating to the CIR to detect said unauthorized access to the object; characterized in that the controller is configured to cause different UWB communication nodes of said plurality of UWB communication nodes to transmit said UWB messages by periodically changing the UWB communication node or nodes that transmit the messages. a plurality of ultra-wideband, UWB, communication nodes ; a controller operatively coupled to said plurality of UWB communication nodes , wherein the controller is configured to: cause at least one of the UWB communication nodes to transmit one or more UWB messages to other UWB communication nodes of said plurality of UWB communication nodes ; receive a channel impulse response, CIR, estimate and/or one or more parameters relating to said CIR output by the UWB communication nodes in response to receiving said UWB messages; analyze said CIR estimate and/or said parameters relating to the CIR to detect said unauthorized access to the object; characterized in that the controller is configured to cause different UWB communication nodes of said plurality of UWB communication nodes to transmit said UWB messages by periodically changing the UWB communication node or nodes that transmit the messages. cause at least one of the UWB communication nodes to transmit one or more UWB messages to other UWB communication nodes of said plurality of UWB communication nodes ; receive a channel impulse response, CIR, estimate and/or one or more parameters relating to said CIR output by the UWB communication nodes in response to receiving said UWB messages; analyze said CIR estimate and/or said parameters relating to the CIR to detect said unauthorized access to the object; characterized in that the controller is configured to cause different UWB communication nodes of said plurality of UWB communication nodes to transmit said UWB messages by periodically changing the UWB communication node or nodes that transmit the messages.
A method, comprising: preparing , at a user equipment, a mobile originated short message service message; and identifying , in the message, a particular external identifier from a set of external identifiers assigned to an application; wherein the identifying comprises setting an application port identifier to a predetermined value, wherein the particular external identifier is mapped to the application port identifier and the international mobile subscriber identity, IMSI, of the user equipment, transmitting the message from the user equipment, the transmitted message including the application port identifier. preparing , at a user equipment, a mobile originated short message service message; and identifying , in the message, a particular external identifier from a set of external identifiers assigned to an application; wherein the identifying comprises setting an application port identifier to a predetermined value, wherein the particular external identifier is mapped to the application port identifier and the international mobile subscriber identity, IMSI, of the user equipment, transmitting the message from the user equipment, the transmitted message including the application port identifier.
A construction machine, which comprises a cabin in which a driver is seated, the construction machine comprising: an air conditioning device configured to adjust an internal temperature of the cabin ; and ducts extending from the air conditioning device and configured to guide an air flow, wherein the ducts branch to comprise: a first duct extending toward an upper side of the cabin ; a second duct extending toward a rear side of the ventilated seat , and a second nozzle disposed at an end of the second duct , characterised in that the construction machine further comprises a ventilated seat having fans, wherein the ventilated seat comprises a cushion configured to support the driver's lower body, and a second fan is installed in the cushion , wherein the second fan protrudes from a lowermost end of the ventilated seat , and wherein the second nozzle is disposed at the same height as the second fan . an air conditioning device configured to adjust an internal temperature of the cabin ; and ducts extending from the air conditioning device and configured to guide an air flow, wherein the ducts branch to comprise: a first duct extending toward an upper side of the cabin ; a second duct extending toward a rear side of the ventilated seat , and a second nozzle disposed at an end of the second duct , characterised in that the construction machine further comprises a ventilated seat having fans, wherein the ventilated seat comprises a cushion configured to support the driver's lower body, and a second fan is installed in the cushion , wherein the second fan protrudes from a lowermost end of the ventilated seat , and wherein the second nozzle is disposed at the same height as the second fan . a first duct extending toward an upper side of the cabin ; a second duct extending toward a rear side of the ventilated seat , and a second nozzle disposed at an end of the second duct , characterised in that the construction machine further comprises a ventilated seat having fans, wherein the ventilated seat comprises a cushion configured to support the driver's lower body, and a second fan is installed in the cushion , wherein the second fan protrudes from a lowermost end of the ventilated seat , and wherein the second nozzle is disposed at the same height as the second fan .
X-ray assembly including at least two X-ray facilities each with a control facility and a recording assembly comprising an X-ray tube and an X-ray detector , wherein at least one of the X-ray facilities is a mobile X-ray facility with a mobile carrier carrying the recording assembly, wherein the X-ray facilities each comprise a communication interface for establishing a communication connection between the control facilities of the X-ray facilities and/or between an intermediate facility belonging to the X-ray assembly (1a, 1b, 1c, 1d, 1e, If), which itself comprises a control facility and at least one communication interface , and all the control facilities of the X-ray facilities , wherein the control facility of least one of the at least one mobile X-ray facility is embodied to control the image recording operation of the respective X-ray facility using control data received from another control facility via the communication connection and/or to transfer at least one recorded image dataset to at least one further control facility via the communication connection .