mhurhangee/patent-ind-claim-en huggingface dataset:
A method of generating a display object, the method comprising operating a first processor comprised within a first device, wherein the first device is a mobile device, to: execute an application; generate a display object associated with the application; transmit the display object to a second device for output by the second device; and receive user input to the application via the display object output on the second device, wherein the first processor is not operable to receive user input to the application via the display object on the first device; and wherein the method further comprises: causing a second processor comprised within the second device to: generate a second display object representative of data stored in a memory on the second device, or accessible to the second device; and output the second display object on the second device; wherein moving the second display object to an area of the second device on which the display object is output causes the first processor to supply the data represented by the second display object to the application. execute an application; generate a display object associated with the application; transmit the display object to a second device for output by the second device; and receive user input to the application via the display object output on the second device, wherein the first processor is not operable to receive user input to the application via the display object on the first device; and wherein the method further comprises: causing a second processor comprised within the second device to: generate a second display object representative of data stored in a memory on the second device, or accessible to the second device; and output the second display object on the second device; wherein moving the second display object to an area of the second device on which the display object is output causes the first processor to supply the data represented by the second display object to the application. causing a second processor comprised within the second device to: generate a second display object representative of data stored in a memory on the second device, or accessible to the second device; and output the second display object on the second device; generate a second display object representative of data stored in a memory on the second device, or accessible to the second device; and output the second display object on the second device; wherein moving the second display object to an area of the second device on which the display object is output causes the first processor to supply the data represented by the second display object to the application.
A method of erecting a wind turbine tower tethered by a number of cables and configured to support a wind turbine nacelle and a rotor, each cable extending between a first end attached to an attachment element on the tower and a second end attached to an anchoring element on an anchor block , the method comprising: - attaching at least some of the tethering cables to the tower , - detachably fastening a motorized winch on an anchor block , the winch comprising a wire on a spool , - connecting the wire of the winch to the second end of a tethering cable , - winding up the wire of the winch pulling the cable end towards the anchor block and into position for fastening the cable end to the anchoring element , - fastening the cable end to the anchoring element while held in position by the winch , and - detaching the winch wire from the cable , characterized in that - the tower comprises a number of tower sections joined to each other, and the attaching of at least some of the tethering cables to the tower comprises: - positioning a first tower section , - attaching at least some of the tethering cables to a second tower section while the second tower section is on the ground, - lifting the second tower section with the attached cables onto the first tower section , and - joining the second tower section to the first tower section . - attaching at least some of the tethering cables to the tower , - detachably fastening a motorized winch on an anchor block , the winch comprising a wire on a spool , - connecting the wire of the winch to the second end of a tethering cable , - winding up the wire of the winch pulling the cable end towards the anchor block and into position for fastening the cable end to the anchoring element , - fastening the cable end to the anchoring element while held in position by the winch , and - detaching the winch wire from the cable , characterized in that - the tower comprises a number of tower sections joined to each other, and the attaching of at least some of the tethering cables to the tower comprises: - positioning a first tower section , - attaching at least some of the tethering cables to a second tower section while the second tower section is on the ground, - lifting the second tower section with the attached cables onto the first tower section , and - joining the second tower section to the first tower section .
A method for washing a treatment tool stand of an endoscope, using a stand washing tool having a handle having a distal end, a proximal end, and a longitudinal axis, a head provided on a distal end side of the handle, a first washing member erected on the head in a direction intersecting a reference plane including the longitudinal axis, and a second washing member erected in a direction intersecting the reference plane on the head closer to the handle than the first washing member and provided so as to be parallel to or coincide with the first washing member in a case where the second washing member is projected on a plane perpendicular to the longitudinal axis, wherein the first washing member has a first end opposite to one end on the head side, wherein the second washing member has a second end opposite to one end on the head side, wherein a height position of the first end in a direction orthogonal to the reference plane from the reference plane is a first height position, wherein a height position of the second end in the direction orthogonal to the reference plane from the reference plane is a second height position lower than the first height position, the washing method comprising: a first washing member inserting step of inserting the first washing member into a gap between the stand storage wall section of the endoscope and the treatment tool stand; a second washing member abutting step of making the second washing member abut against a treatment tool guide surface of the treatment tool stand; and a stand washing tool moving step of moving the stand washing tool along the treatment tool guide surface in a state where the first washing member is inserted into the gap and the second washing member is made to abut against the treatment tool guide surface. a first washing member inserting step of inserting the first washing member into a gap between the stand storage wall section of the endoscope and the treatment tool stand; a second washing member abutting step of making the second washing member abut against a treatment tool guide surface of the treatment tool stand; and a stand washing tool moving step of moving the stand washing tool along the treatment tool guide surface in a state where the first washing member is inserted into the gap and the second washing member is made to abut against the treatment tool guide surface.
A computer-implemented method for decompacting a 3D model of the subsurface geology of the Earth at an intermediate restoration time in the past τ , the method comprising: receiving a 3D model of present-day geometry of the subsurface geology ; selecting a value of a restoration time in the past τ before the present day and after a time an oldest horizon surface in the 3D model of the subsurface was deposited; restoring the 3D model from the present day measured geometry to the predicted past geometry at the restoration time in the past τ using a 3D transformation; and decompacting the vertical dimension of the restored 3D model to elongate vertical lengths of geological layers below a horizon layer deposited at the restoration time in the past τ , characterized in that the method further comprises receiving a measure of present-day porosity experimentally measured within the subsurface geology of the Earth and wherein the vertical lengths are elongated based on a relationship between a depositional porosity of the geological layers at the time sediment in those layers was deposited, restoration porosity of the geological layers at the restoration time in the past τ , and the present-day porosity of the geological layers experimentally measured in the present-day. receiving a 3D model of present-day geometry of the subsurface geology ; selecting a value of a restoration time in the past τ before the present day and after a time an oldest horizon surface in the 3D model of the subsurface was deposited; restoring the 3D model from the present day measured geometry to the predicted past geometry at the restoration time in the past τ using a 3D transformation; and decompacting the vertical dimension of the restored 3D model to elongate vertical lengths of geological layers below a horizon layer deposited at the restoration time in the past τ , characterized in that the method further comprises receiving a measure of present-day porosity experimentally measured within the subsurface geology of the Earth and wherein the vertical lengths are elongated based on a relationship between a depositional porosity of the geological layers at the time sediment in those layers was deposited, restoration porosity of the geological layers at the restoration time in the past τ , and the present-day porosity of the geological layers experimentally measured in the present-day.
A crystallized glass ceramic comprising 30 wt% to 40 wt% of each of CaSiO 3 , Ca 10 (PO 4 ) 6 (OH) 2 , and Ca 2 Mg(Si 2 O 7 ).
A method for radio spectrum sharing, the method comprising: identifying , via a scheduler, a free radio spectrum block; publishing , via a transceiver, an identification packet of the free radio spectrum block, the identification packet including at least one of available spectrum, time, or area corresponding to the free radio spectrum block; receiving , via the transceiver, an acknowledgement to the identification packet; causing , via the scheduler, a provider of the free radio spectrum block to cease radio communication on the available spectrum for the time and area specified in the identification packet; determining, via the scheduler, a use for a portion of the free radio spectrum block when radio communications are ceased for the portion of the free radio spectrum block; publishing, via the transceiver, a reclamation packet; receiving, via the transceiver, acknowledgements to the reclamation packet; and causing resumption of radio communication on the available spectrum in response to receiving a threshold number of acknowledgements to the reclamation packet, wherein the threshold number of acknowledgements are equal to a number of acknowledgements received to the identification packet. identifying , via a scheduler, a free radio spectrum block; publishing , via a transceiver, an identification packet of the free radio spectrum block, the identification packet including at least one of available spectrum, time, or area corresponding to the free radio spectrum block; receiving , via the transceiver, an acknowledgement to the identification packet; causing , via the scheduler, a provider of the free radio spectrum block to cease radio communication on the available spectrum for the time and area specified in the identification packet; determining, via the scheduler, a use for a portion of the free radio spectrum block when radio communications are ceased for the portion of the free radio spectrum block; publishing, via the transceiver, a reclamation packet; receiving, via the transceiver, acknowledgements to the reclamation packet; and causing resumption of radio communication on the available spectrum in response to receiving a threshold number of acknowledgements to the reclamation packet, wherein the threshold number of acknowledgements are equal to a number of acknowledgements received to the identification packet.
An ice protection system suitable for being connected to an associated aerodynamic structure, the system comprising: a heating device having a plurality of carbon nanotube (CNT) resistive heating elements; and a controller comprising: a power circuit topology having at least one buck converter ; and a processor configured to: determine (S1620) an ideal setpoint temperature of one or more of the plurality of CNT resistive heating elements; determine (S1625) a progressively adjusted setpoint temperature by comparing the ideal setpoint temperature to a current measured temperature of one or more of the plurality of CNT resistive heating elements; and produce (S1630) a drive signal output based on at least the measured current temperature and the instantaneous progressively adjusted setpoint temperature. a heating device having a plurality of carbon nanotube (CNT) resistive heating elements; and a controller comprising: a power circuit topology having at least one buck converter ; and a processor configured to: determine (S1620) an ideal setpoint temperature of one or more of the plurality of CNT resistive heating elements; determine (S1625) a progressively adjusted setpoint temperature by comparing the ideal setpoint temperature to a current measured temperature of one or more of the plurality of CNT resistive heating elements; and produce (S1630) a drive signal output based on at least the measured current temperature and the instantaneous progressively adjusted setpoint temperature. a power circuit topology having at least one buck converter ; and a processor configured to: determine (S1620) an ideal setpoint temperature of one or more of the plurality of CNT resistive heating elements; determine (S1625) a progressively adjusted setpoint temperature by comparing the ideal setpoint temperature to a current measured temperature of one or more of the plurality of CNT resistive heating elements; and produce (S1630) a drive signal output based on at least the measured current temperature and the instantaneous progressively adjusted setpoint temperature. determine (S1620) an ideal setpoint temperature of one or more of the plurality of CNT resistive heating elements; determine (S1625) a progressively adjusted setpoint temperature by comparing the ideal setpoint temperature to a current measured temperature of one or more of the plurality of CNT resistive heating elements; and produce (S1630) a drive signal output based on at least the measured current temperature and the instantaneous progressively adjusted setpoint temperature.
A sounding reference signal, SRS, transmission method, comprising: receiving, by a terminal device , downlink control information, DCI, wherein the DCI comprises SRS trigger information; determining, by the terminal device , a transmission latency K according to a first high layer signaling; and transmitting, by the terminal device , an SRS on at least one SRS resource in at least one SRS resource set, according to the transmission latency K, at a Kth time-domain resource unit after receiving the DCI, wherein the at least one SRS resource set is indicated by the SRS trigger information and K is an integer greater than or equal to zero, characterized in that the determining the transmission latency K according to the first high layer signaling comprises determining the transmission latency K according to a subcarrier spacing used for SRS transmission triggered by the SRS trigger information, or a subcarrier spacing corresponding to a bandwidth part, BWP, receiving the DCI. receiving, by a terminal device , downlink control information, DCI, wherein the DCI comprises SRS trigger information; determining, by the terminal device , a transmission latency K according to a first high layer signaling; and transmitting, by the terminal device , an SRS on at least one SRS resource in at least one SRS resource set, according to the transmission latency K, at a Kth time-domain resource unit after receiving the DCI, wherein the at least one SRS resource set is indicated by the SRS trigger information and K is an integer greater than or equal to zero, characterized in that the determining the transmission latency K according to the first high layer signaling comprises determining the transmission latency K according to a subcarrier spacing used for SRS transmission triggered by the SRS trigger information, or a subcarrier spacing corresponding to a bandwidth part, BWP, receiving the DCI.
Apparatus to acquire an image of roots of a plant located in a target rhizotron, said apparatus comprising: - a turntable having a rotation axis (X) and intended to support said target rhizotron; - a lightening device ; - an first camera having an optical axis (O) substantially oriented toward said rotation axis (X), said first camera comprising a plurality of elemental light sensors , each elemental light sensor being configured to acquire a respective elemental signal (S 52 ); said apparatus being characterized in that it further comprises: - a focus sensor arranged so as to provide a measure (M) of at least one parameter of the first camera; - a control module , configured to receive said measure, compare said measure to comparison data (C), and inform an operator accordingly, the comparison data comprising data related to reference rhizotrons different than said target rhizotron, and/or data related to one or several previously acquired images of the target rhizotron. - a turntable having a rotation axis (X) and intended to support said target rhizotron; - a lightening device ; - an first camera having an optical axis (O) substantially oriented toward said rotation axis (X), said first camera comprising a plurality of elemental light sensors , each elemental light sensor being configured to acquire a respective elemental signal (S 52 ); - a focus sensor arranged so as to provide a measure (M) of at least one parameter of the first camera; - a control module , configured to receive said measure, compare said measure to comparison data (C), and inform an operator accordingly, the comparison data comprising data related to reference rhizotrons different than said target rhizotron, and/or data related to one or several previously acquired images of the target rhizotron.
A soft gelatin capsule formulation, comprising: (a)2-[3,5-Bis(trifluoromethyl)phenyl]-N-{4-(4-fluoro-2-methylphenyl)-6-[ -7-(hydroxymethyl)hexahydropyrazino[2,1-c] oxazin-8 -yl]-3-pyridinyl}-N,2-dimethylpropanamide (Compound A): or a pharmaceutically acceptable salt thereof; and (b) at least one solubilizer selected from caprylocaproyl polyoxyl-8 glycerides, glycerol monocaprylocaprate, polyoxyl 35 castor oil, polysorbate 80, or mixtures thereof. (a)2-[3,5-Bis(trifluoromethyl)phenyl]-N-{4-(4-fluoro-2-methylphenyl)-6-[ -7-(hydroxymethyl)hexahydropyrazino[2,1-c] oxazin-8 -yl]-3-pyridinyl}-N,2-dimethylpropanamide (Compound A): or a pharmaceutically acceptable salt thereof; and (b) at least one solubilizer selected from caprylocaproyl polyoxyl-8 glycerides, glycerol monocaprylocaprate, polyoxyl 35 castor oil, polysorbate 80, or mixtures thereof.
Carbon black particles having a Brunauer-Emmett-Teller (BET) surface area ranging from 80 m 2 /g to 1100 m 2 /g, an oil absorption number equal to or less than 200 mL/100g, a surface energy of 10 mJ/m 2 or less, a particle size distribution with a D 75 :D 25 ratio less than 2.1, and a particle size distribution with a D 50 value equal to or less than 165 nm, wherein the particle size distribution designates an aggregate size distribution of the carbon black particles as indicated by their D 50 values, wherein the D values are determined by a DSC method using a disc centrifuge, wherein the Brunauer-Emmett-Teller (BET) surface area is determined by the ASTM D6556-10 method, wherein the oil absorption number is determined by the ASTM D2414-16 method, and wherein the surface energy is determined by Dynamic Vapor Sorption (DVS) or water spreading pressure.
An electrical connector assembly comprising: a first electrical connector including a dielectric first connector housing , and a first plurality of electrical contacts , including mounting ends , supported by the first connector housing, wherein the mounting ends of the plurality of electrical contacts of the first electrical connector are configured to be mounted to a first surface of a substrate , wherein the substrate has a second surface opposite to the first surface along a first direction (L); a second electrical connector including a dielectric second connector housing , and a second plurality of electrical contacts supported by the second connector housing , characterized in that the second electrical connector is configured such that it can be moved relative to the first electrical connector along an engagement direction that is perpendicular to the first direction (L) so as to attach the second electrical connector to the first electrical connector when the first electrical connector is mounted to the first surface of the substrate , wherein the attached first and second electrical connectors can mate with a common complementary electrical device or different complementary electrical devices. a first electrical connector including a dielectric first connector housing , and a first plurality of electrical contacts , including mounting ends , supported by the first connector housing, wherein the mounting ends of the plurality of electrical contacts of the first electrical connector are configured to be mounted to a first surface of a substrate , wherein the substrate has a second surface opposite to the first surface along a first direction (L); a second electrical connector including a dielectric second connector housing , and a second plurality of electrical contacts supported by the second connector housing , characterized in that the second electrical connector is configured such that it can be moved relative to the first electrical connector along an engagement direction that is perpendicular to the first direction (L) so as to attach the second electrical connector to the first electrical connector when the first electrical connector is mounted to the first surface of the substrate , wherein the attached first and second electrical connectors can mate with a common complementary electrical device or different complementary electrical devices.
A method of manufacturing a product from used woven or knitted textile comprising vegetable or animal fibres, in particular cotton or wool, the method comprising the steps of: - collecting said used woven or knitted textile, - granulating said used woven or knitted textile into fibres having an average fiber length of between 3.5 mm and 5,5 mm, - mixing said granulated used woven or knitted textile with a thermoplastic fiber based binder, and - forming a nonwoven mat from the mixture of said granulated used woven or knitted textile and fiber based binder, said nonwoven mat comprising 59% to 67% of vegetable fiber, or alternatively said nonwoven mat comprising at least 80% animal fibres, - mixing said granulated used woven or knitted textile with a coupling agent, and - heating said nonwoven mat to at least 140C. - collecting said used woven or knitted textile, - granulating said used woven or knitted textile into fibres having an average fiber length of between 3.5 mm and 5,5 mm, - mixing said granulated used woven or knitted textile with a thermoplastic fiber based binder, and - forming a nonwoven mat from the mixture of said granulated used woven or knitted textile and fiber based binder, said nonwoven mat comprising 59% to 67% of vegetable fiber, or alternatively said nonwoven mat comprising at least 80% animal fibres, - mixing said granulated used woven or knitted textile with a coupling agent, and - heating said nonwoven mat to at least 140C.