mhurhangee/patent-ind-claim-en huggingface dataset:
A method for supporting, by a first terminal , switching between a plurality of modes for a call, the method comprising: performing a capability negotiation for a call with a second terminal ; and establishing a first connection between the first terminal and a call server according to a first mode among the plurality of modes for the call with the second terminal after performing the capability negotiation, wherein the performing of the capability negotiation comprises transmitting a first message comprising information indicating a media attribute of each of two or more modes of the plurality of modes to the call server , and information indicating modes in which simulcasting is performed when switching between the modes of the two or more modes, wherein the plurality of modes comprises a phone mode in which the call is performed using the first terminal , a tethered mode in which the first terminal transmits data related to the call to a third terminal associated with the first terminal by tethering and the call is performed using the third terminal , and a standalone mode in which the third terminal directly receives the data related to the call. performing a capability negotiation for a call with a second terminal ; and establishing a first connection between the first terminal and a call server according to a first mode among the plurality of modes for the call with the second terminal after performing the capability negotiation, wherein the performing of the capability negotiation comprises transmitting a first message comprising information indicating a media attribute of each of two or more modes of the plurality of modes to the call server , and information indicating modes in which simulcasting is performed when switching between the modes of the two or more modes, wherein the plurality of modes comprises a phone mode in which the call is performed using the first terminal , a tethered mode in which the first terminal transmits data related to the call to a third terminal associated with the first terminal by tethering and the call is performed using the third terminal , and a standalone mode in which the third terminal directly receives the data related to the call.
A rotary telehandler comprising a carriage movable on wheels, which mounts a tower , which in turn mounts a driver's cab and an operating arm, wherein the telehandler is equipped with the following free paths of ascent and descent: a first path, defined by a first position of the tower , wherein it has an axis parallel to that of the carriage and comprises a door of the cab , at least one handle on which an operator can grasp and a ladder made on a side wall of the carriage ; a second path, defined by an angled position of the tower , wherein it is oblique or transversal to the axis of the carriage , with a front of the cab facing towards the inside of the carriage , said second path comprising the door , at least a first handle mounted at a first side of the door , a treadable surface of the carriage and a further ladder made in a side of the carriage ; and a third path, defined by a further angled position of the tower , wherein it is oblique or transversal to the axis of the carriage , with said front of the cab facing towards the outside of the carriage , said third path comprising the door , at least a second handle mounted at a second side of the door , a treadable surface of the carriage and a ladder made in a further side of the carriage ; said first, second and third paths being free of obstacles for the free passage of an operator.
A flue cap cover for covering a flue termination extending from a building wall having a flue pipe and a flue cap , wherein said flue cap includes a plurality of ribs adapted to attach said flue cap to said flue pipe, the flue cap cover further comprising a pipe ring comprising an annular vertical wall adapted to fit over said flue pipe and having a plurality of legs extending outwardly from said annular vertical wall , said plurality of legs each including side walls and an opening adapted to receive one of said plurality of ribs of said flue cap , and a cover comprising a first open end adapted to fit over said flue cap and a second open end adapted to vent an exhaust wherein said cover is constructed and arranged to fit over and overlie said flue cap , wherein said flue cap cover may be made in different colors to match or contrast with the color of said building. a pipe ring comprising an annular vertical wall adapted to fit over said flue pipe and having a plurality of legs extending outwardly from said annular vertical wall , said plurality of legs each including side walls and an opening adapted to receive one of said plurality of ribs of said flue cap , and a cover comprising a first open end adapted to fit over said flue cap and a second open end adapted to vent an exhaust wherein said cover is constructed and arranged to fit over and overlie said flue cap , wherein said flue cap cover may be made in different colors to match or contrast with the color of said building.
A biodegradable container comprising a biodegradable material and a reinforced barrier film coated onto the biodegradable material, wherein the biodegradable material is at least one of: paper, cellulose, wood, biodegradable plastic, wherein the reinforced barrier film comprises graphene nanoplatelets dispersed in a biodegradable polymeric substrate, wherein the content of the polymeric substrate is 1 percent of the total weight of the biodegradable material, wherein each of the graphene nanoplatelets has a diameter in the range of approximately 0.5 to 15 micrometres, wherein the graphene nanoplatelets comprises partially reduced graphene oxide and wherein the thickness of coating of the reinforced barrier film is in a range of 5 micrometres to 50 micrometres. wherein the content of the polymeric substrate is 1 percent of the total weight of the biodegradable material, wherein each of the graphene nanoplatelets has a diameter in the range of approximately 0.5 to 15 micrometres, wherein the graphene nanoplatelets comprises partially reduced graphene oxide and wherein the thickness of coating of the reinforced barrier film is in a range of 5 micrometres to 50 micrometres.
An integrated water fitting assembly, comprising: a housing , a drainage mechanism , and a drainage base , wherein the drainage mechanism is disposed in the housing , the drainage base is disposed below the housing , and a water inlet being communicable with a water source, and the drainage mechanism controls open or closing of a water outlet of the drainage base ; the integrated water fitting assembly further comprises a dual-outlet micro-pump , wherein the dual-outlet micro-pump is disposed in the housing , a water inlet , a washing water outlet , and a drainage control water outlet that are communicated with each other are formed in the dual-outlet micro-pump , the washing water outlet extends out of the housing , the drainage control water outlet is connected inside the drainage mechanism , such that the water source is divided through the dual-outlet micro-pump into two paths to be respectively used for drainage and washing; characterized in that the integrated water fitting assembly comprises a plurality of flushing aid tubes , each of the flushing aid tubes comprises an inlet end being connectable with a pressurized water source end, and an outlet end inserted into the drainage base and connected with the water outlet of the drainage base . the integrated water fitting assembly further comprises a dual-outlet micro-pump , wherein the dual-outlet micro-pump is disposed in the housing , a water inlet , a washing water outlet , and a drainage control water outlet that are communicated with each other are formed in the dual-outlet micro-pump , the washing water outlet extends out of the housing , the drainage control water outlet is connected inside the drainage mechanism , such that the water source is divided through the dual-outlet micro-pump into two paths to be respectively used for drainage and washing; characterized in that the integrated water fitting assembly comprises a plurality of flushing aid tubes , each of the flushing aid tubes comprises an inlet end being connectable with a pressurized water source end, and an outlet end inserted into the drainage base and connected with the water outlet of the drainage base .
A data processing method, implemented by a terminal having a driver and an application program being an application program client installed on the terminal , wherein the application program sets a network wakeup parameter for the driver, the method comprising: obtaining a first network wakeup parameter for waking up the application program installed on the terminal when the application program is in a standby mode, the obtaining a first network wakeup parameter comprises receiving, by the driver of the terminal , the first network wakeup parameter sent by the application program; reporting, by the driver, the first network wakeup parameter to a power saving service program, performing, by the power saving service program, reconfiguration processing on the first network wakeup parameter based on a first configuration condition preset in the power saving service program to obtain a second network wakeup parameter; sending, by the power saving service program, the second network wakeup parameter to the driver of the terminal ; after receiving the second network wakeup parameter, updating, by the driver, the first network wakeup parameter to the second network wakeup parameter, and writing, by the driver, the second network wakeup parameter into Wi-Fi firmware. obtaining a first network wakeup parameter for waking up the application program installed on the terminal when the application program is in a standby mode, the obtaining a first network wakeup parameter comprises receiving, by the driver of the terminal , the first network wakeup parameter sent by the application program; reporting, by the driver, the first network wakeup parameter to a power saving service program, performing, by the power saving service program, reconfiguration processing on the first network wakeup parameter based on a first configuration condition preset in the power saving service program to obtain a second network wakeup parameter; sending, by the power saving service program, the second network wakeup parameter to the driver of the terminal ; after receiving the second network wakeup parameter, updating, by the driver, the first network wakeup parameter to the second network wakeup parameter, and writing, by the driver, the second network wakeup parameter into Wi-Fi firmware.
A method for the preparation of - -1-azabicyclo[2.2.2]oct-3-yl-3, 4-dihydro-l-phenyl-2 -isoquinolinecarboxylate (Solifenacin), of the formula (I) and or its pharmaceutically acceptable salts: said method comprising: a. reacting (R)-quinuclidin-3-ol of formula (II) and bis(aryl)carbonate of the formula (IIIa), to form (3 R )-1-azabicyclo[2.2.2]oct-3-yl-4-aryl carbonate of the formula (IVa): wherein Ar can be substituted phenyl selected from p-nitro phenyl, 4-(trifluoro methyl) phenyl, 4-cyano phenyl, ethyl benzoate, or benzoic acid; and b. treating the reaction mixture comprising (3 R )-1-azabicyclo[2.2.2]oct-3-yl-4-aryl carbonate of the formula (IVa) obtained from step (a), with -1-phenyl-1, 2, 3, 4-tetrahydroisoquinoline of formula (V), to obtain - -1-azabicyclo[2.2.2]oct-3-yl-3,4-dihydro-1-phenyl-2 -isoquinolinecarboxylate (Solifenacin) of the Formula (I) a. reacting (R)-quinuclidin-3-ol of formula (II) and bis(aryl)carbonate of the formula (IIIa), to form (3 R )-1-azabicyclo[2.2.2]oct-3-yl-4-aryl carbonate of the formula (IVa): wherein Ar can be substituted phenyl selected from p-nitro phenyl, 4-(trifluoro methyl) phenyl, 4-cyano phenyl, ethyl benzoate, or benzoic acid; and b. treating the reaction mixture comprising (3 R )-1-azabicyclo[2.2.2]oct-3-yl-4-aryl carbonate of the formula (IVa) obtained from step (a), with -1-phenyl-1, 2, 3, 4-tetrahydroisoquinoline of formula (V), to obtain - -1-azabicyclo[2.2.2]oct-3-yl-3,4-dihydro-1-phenyl-2 -isoquinolinecarboxylate (Solifenacin) of the Formula (I)
Electric drive axle with an electric drive system integrated in the drive axle and an energy supply device, having the following: a housing arranged on the drive axle, an internal DC power supply designed to provide a high-voltage DC power within the housing , and a connection device for a high-voltage DC load, having the following: a fastening plate designed to fasten the connection device to the housing , a connection element arranged on a first side of the fastening plate and designed to be coupled to the high-voltage DC load, and a safety unit connected to a second side of the fastening plate and designed to accommodate at least one electrical protective element , wherein the safety unit is arranged in an interior of the housing when the connection device is fastened to the housing ; wherein the energy supply device further has a contact element designed to electrically couple the internal DC power supply to the safety unit .
An electrochemical cell comprising: a. an anode chamber with an anode , b. an anolyte inlet through which an anolyte can be conducted into the anode chamber , c. an anolyte outlet through which the anolyte can be discharged from the anode chamber , d. a cathode chamber with a cathode that has a cathode base body , e. a membrane arranged between the anode chamber and the cathode chamber and f. a chamber frame , wherein the anolyte inlet and/or the anolyte outlet run(s) through the cathode base body , characterized in that the anode chamber is bounded on one side by the anode , on the opposite side by the membrane and on the side surfaces lying therebetween by the chamber frame , which is fluidically connected to the anolyte inlet and/or the anolyte outlet . a. an anode chamber with an anode , b. an anolyte inlet through which an anolyte can be conducted into the anode chamber , c. an anolyte outlet through which the anolyte can be discharged from the anode chamber , d. a cathode chamber with a cathode that has a cathode base body , e. a membrane arranged between the anode chamber and the cathode chamber and f. a chamber frame , wherein the anolyte inlet and/or the anolyte outlet run(s) through the cathode base body , characterized in that the anode chamber is bounded on one side by the anode , on the opposite side by the membrane and on the side surfaces lying therebetween by the chamber frame , which is fluidically connected to the anolyte inlet and/or the anolyte outlet .
A wave generator comprising solid displacement elements , the wave generator being configured to be employed in a strain wave gearing for flexing each part in a circumferential direction of a flexible externally toothed gear in a radial direction with a constant amplitude and a constant period by utilizing a plurality of solid displacement elements , and for moving meshing positions of the externally toothed gear with a rigid internally toothed gear in the circumferential direction, so that a relative rotation between the two gears is generated according to a difference in teeth between the externally toothed gear and the internally toothed gear ; in the wave generator the solid displacement elements are a monomorphic type or bimorphic type rectangular plate-shape elements that are curved into an arc shape, and that are deformable from the arc shape into a semicircular shape by energization, the semicircular shape having a smaller radius than an arc radius of the arc shape; and portions of the externally toothed gear flexed by the solid displacement elements that are deformed into the semicircular shape, are meshed with the internally toothed gear ; the wave generator characterized in that an element retaining member for retaining the solid displacement elements is provided; the element retaining member is provided with a circular outer circumferential surface capable of facing an inner circumferential surface of the externally toothed gear , and a plurality of element retaining parts formed in the circular outer circumferential surface so as to be arranged in equiangular intervals in a circumferential direction; the respective solid displacement elements are retained in the respective element retaining parts in a manner that a convex-side surface of each of the solid displacement elements faces outward in a radial direction of the circular outer circumferential surface ; and a first end part of each of the solid displacement elements in a length direction thereof is hinged to the element retaining part so as not to move, and a second end part thereof is movable in a direction toward and away from the first end part .
Method of manufacturing a dental implant , comprising the steps: a) provision of a dental implant base body, in particular an anchoring pin base body, wherein step a) comprises a presintering/prefiring of the dental implant base body at a presintering temperature of 600°C-1,100°C; b) abrasive blasting of at least one surface portion of the dental implant base body, which is to be configured with a surface that promotes bone growth, and at least regional application of abrasive blasting agent to the surface portion, wherein, due to the abrasive blasting in the sense of sandblasting, the surface portion is configured with a surface roughness with a maximum roughness depth Ra of 5 μm - 15 μm and the abrasive blasting is additionally applied; c) at most partial removal of the abrasive blasting agent from the surface portion ; d) sintering of the dental implant base body together with the abrasive blasting agent remaining on the surface portion , wherein a powder having calcium phosphate particles and hydroxyapatite particles is used as the abrasive blasting. a) provision of a dental implant base body, in particular an anchoring pin base body, wherein step a) comprises a presintering/prefiring of the dental implant base body at a presintering temperature of 600°C-1,100°C; b) abrasive blasting of at least one surface portion of the dental implant base body, which is to be configured with a surface that promotes bone growth, and at least regional application of abrasive blasting agent to the surface portion, wherein, due to the abrasive blasting in the sense of sandblasting, the surface portion is configured with a surface roughness with a maximum roughness depth Ra of 5 μm - 15 μm and the abrasive blasting is additionally applied; c) at most partial removal of the abrasive blasting agent from the surface portion ; d) sintering of the dental implant base body together with the abrasive blasting agent remaining on the surface portion , wherein a powder having calcium phosphate particles and hydroxyapatite particles is used as the abrasive blasting.
Method for locally processing information obtained by a first local processor of a plurality of local processors connected to a central processor , the first local processor being identified by a first identifier and being capable of receiving messages from the central processor, the method comprising the following steps, implemented by the first local processor: • obtaining (L101) local measurements in order to form a local contribution vector (i201), • computing (L102) a first information matrix (J201) relating to the local contribution vector (i201), • receiving (L301) a message from the central processor, comprising a list (CSRC) of identifiers of local processors selected by the central processor on the basis of their relevance to the computation of a global prediction matrix (Y), called the relevance list, the global prediction matrix being the product of a fusion of local measurements obtained by local processors of the plurality, • on the basis of at least the presence (L305) of the first identifier in the relevance list, a step (L311, L312) of determining a contribution authorization (OK-SND, NOK-SND), • on the basis of the determined contribution authorization (L311, L312), a step (L103) of transmitting a message comprising the first identifier of the first local processor , the first information matrix (J201) and the local contribution vector (i201), at least to the central processor . • obtaining (L101) local measurements in order to form a local contribution vector (i201), • computing (L102) a first information matrix (J201) relating to the local contribution vector (i201), • receiving (L301) a message from the central processor, comprising a list (CSRC) of identifiers of local processors selected by the central processor on the basis of their relevance to the computation of a global prediction matrix (Y), called the relevance list, the global prediction matrix being the product of a fusion of local measurements obtained by local processors of the plurality, • on the basis of at least the presence (L305) of the first identifier in the relevance list, a step (L311, L312) of determining a contribution authorization (OK-SND, NOK-SND), • on the basis of the determined contribution authorization (L311, L312), a step (L103) of transmitting a message comprising the first identifier of the first local processor , the first information matrix (J201) and the local contribution vector (i201), at least to the central processor .
A method for enzymatically producing substantially monodisperse glycosaminoglycan polymers comprising providing at least one functional acceptor and at least one recombinant heparosan synthase capable of elongating the functional acceptor in a controlled and/or repetitive fashion to form extended glycosaminoglycan-like molecules, wherein the recombinant heparosan synthase has an amino acid sequence as set forth in SEQ ID NO: 6 or an amino acid sequence at least 98% identical to the sequence of SEQ ID NO:66, wherein the functional acceptor comprises at least two sugar units of uronic acid and/or hexosamine, wherein at least one UDP-sugar is added in a stoichiometric ratio to the functional acceptor such that the recombinant heparosan synthase elongates the at least one functional acceptor to provide glycosaminoglycan polymers having a desired size distribution and that are in substantially monodisperse size, wherein a desired size distribution of glycosaminoglycan polymers is obtained by controlling the stoichiometric ratio of UDP-sugar to functional acceptor, wherein the substantially monodisperse extended glycosaminoglycan polymers have (a) a molecular weight in a range of from 3.5 kDa to 0.5 MDa, and a polydispersity value in a range of from 1.0 to 1.1, or (b) a molecular weight in a range of from 0.5 MDa to 4.5 MDa, and a polydispersity value in a range of from 1.0 to 1.5. wherein the recombinant heparosan synthase has an amino acid sequence as set forth in SEQ ID NO: 6 or an amino acid sequence at least 98% identical to the sequence of SEQ ID NO:66, wherein the functional acceptor comprises at least two sugar units of uronic acid and/or hexosamine, wherein at least one UDP-sugar is added in a stoichiometric ratio to the functional acceptor such that the recombinant heparosan synthase elongates the at least one functional acceptor to provide glycosaminoglycan polymers having a desired size distribution and that are in substantially monodisperse size, wherein a desired size distribution of glycosaminoglycan polymers is obtained by controlling the stoichiometric ratio of UDP-sugar to functional acceptor, wherein the substantially monodisperse extended glycosaminoglycan polymers have (a) a molecular weight in a range of from 3.5 kDa to 0.5 MDa, and a polydispersity value in a range of from 1.0 to 1.1, or (b) a molecular weight in a range of from 0.5 MDa to 4.5 MDa, and a polydispersity value in a range of from 1.0 to 1.5.