mhurhangee/patent-ind-claim-en huggingface dataset:
A method for a terminal , comprising: - receiving, from a base station during an attach procedure as part of which the terminal establishes one or more channels (311 - 313) on a radio link with the base station , a control message indicative of a plurality of candidate thresholds (450-452), - queueing a signal for transmission on a spectrum on which the one or more channels (311-313) are implemented, - sensing an energy level of interference on the spectrum , - depending on a signal type of the signal , determining a threshold (450-452), wherein the threshold (450-452) is selected from the plurality of candidate thresholds (450-452), - performing a threshold comparison between the sensed energy level and the determined threshold (450-452), and - depending on the threshold comparison, selectively transmitting the signal on the spectrum . - receiving, from a base station during an attach procedure as part of which the terminal establishes one or more channels (311 - 313) on a radio link with the base station , a control message indicative of a plurality of candidate thresholds (450-452), - queueing a signal for transmission on a spectrum on which the one or more channels (311-313) are implemented, - sensing an energy level of interference on the spectrum , - depending on a signal type of the signal , determining a threshold (450-452), wherein the threshold (450-452) is selected from the plurality of candidate thresholds (450-452), - performing a threshold comparison between the sensed energy level and the determined threshold (450-452), and - depending on the threshold comparison, selectively transmitting the signal on the spectrum .
A method of connecting an item of dishware to a contactlessly readable electronic information carrier comprising the steps: providing the item of dishware , wherein the item of dishware is composed of a material selected from a group consisting of glass, ceramic and plastic or a combination thereof, and attaching the information carrier to the item of dishware , characterised in that the method further comprises the step: applying a cover layer of printing ink in such a way that the cover layer at least portion-wise covers a surface of the information carrier and the cover layer extends over a portion, which is not covered by the information carrier , of a surface of the item of dishware . providing the item of dishware , wherein the item of dishware is composed of a material selected from a group consisting of glass, ceramic and plastic or a combination thereof, and attaching the information carrier to the item of dishware , characterised in that the method further comprises the step: applying a cover layer of printing ink in such a way that the cover layer at least portion-wise covers a surface of the information carrier and the cover layer extends over a portion, which is not covered by the information carrier , of a surface of the item of dishware .
A skin care composition comprising: a. from 45% to 70% by weight of the skin care composition of the at least one emollient derived from a renewable resource; and b. from 30% to 55% by weight of the skin care composition of the at least one immobilizing agent derived from a renewable resource; wherein the skin care composition has a DSC Percent Melt at 50°C from 10% to 50%; wherein the emollient is selected from the group consisting of avocado oil, coconut wax, shea butter, castor oil, hydrogenated castor oil, coconut oil, olive oil, vegetable oil, and combinations thereof; wherein the immobilizing agent is selected from the group consisting of beeswax, stearyl alcohol, and combinations thereof. a. from 45% to 70% by weight of the skin care composition of the at least one emollient derived from a renewable resource; and b. from 30% to 55% by weight of the skin care composition of the at least one immobilizing agent derived from a renewable resource; wherein the skin care composition has a DSC Percent Melt at 50°C from 10% to 50%; wherein the emollient is selected from the group consisting of avocado oil, coconut wax, shea butter, castor oil, hydrogenated castor oil, coconut oil, olive oil, vegetable oil, and combinations thereof; wherein the immobilizing agent is selected from the group consisting of beeswax, stearyl alcohol, and combinations thereof.
A method for controlling a chemical or physical phenomenon detecting device provided with a plurality of sensing sections (10; 110,210) for changing each bottom potential of each potential well, comprising the steps of: injecting a charge from an injection diode section to each potential well of each sensing section (10;110,210) through an input control gate section ; and transferring the charge in each potential well to a floating diffusion section shared in common by a first sensing section (10;110) and a second sensing section (10;210), for identifying a chemical or physical phenomenon on a basis of the charge stored in the floating diffusion section , wherein the step of injecting includes the steps of injecting the charge from the injection diode section to all of the sensing sections (10;110,210), holding a charge in a first potential well of the first sensing section (10;110) selected, and evacuating a charge from a second potential well of the second sensing section (10; 210) not selected, and the step of transferring allows transferring the charge from the first potential well and the second potential well simultaneously to the floating diffusion section using a common transfer gate section control line being connected to both a first transfer gate section and a second transfer gate section , said first transfer gate section being provided directly in-between the first sensing section (10;110) and the floating diffusion section , and said second transfer gate section being provided directly in-between the second sensing section (10;210) and the floating diffusion section . injecting a charge from an injection diode section to each potential well of each sensing section (10;110,210) through an input control gate section ; and transferring the charge in each potential well to a floating diffusion section shared in common by a first sensing section (10;110) and a second sensing section (10;210), for identifying a chemical or physical phenomenon on a basis of the charge stored in the floating diffusion section , wherein the step of injecting includes the steps of injecting the charge from the injection diode section to all of the sensing sections (10;110,210), holding a charge in a first potential well of the first sensing section (10;110) selected, and evacuating a charge from a second potential well of the second sensing section (10; 210) not selected, and the step of transferring allows transferring the charge from the first potential well and the second potential well simultaneously to the floating diffusion section using a common transfer gate section control line being connected to both a first transfer gate section and a second transfer gate section , said first transfer gate section being provided directly in-between the first sensing section (10;110) and the floating diffusion section , and said second transfer gate section being provided directly in-between the second sensing section (10;210) and the floating diffusion section .
Volumetric pump comprising an inlet section and an outlet section , characterized by comprising a first volume with variable geometry connected through a first suction valve to said inlet section and through a first delivery valve to said outlet section , a second volume with variable geometry connected through a second suction valve to said inlet section and through a second delivery valve to said outlet section , first means for varying the volume of said first volume with variable geometry , second means for varying the volume of said second volume with variable geometry , actuator means of said first means for varying the volume of said first volume with variable geometry and of said second means for varying the volume of said second volume with variable geometry , said actuator means comprising a servo motor, and whereby in operating conditions a reduction of the volume of said first volume with variable geometry corresponds to an increase of the volume of said second volume with variable geometry , and an increase of the volume of said first volume with variable geometry corresponds to a reduction of the volume of said second volume with variable geometry , and characterized in that said first and second actuator unit and each comprise: - a servo motor; - a shaft, having a rotation axis connected to said servo motor, wherein said servo motor transmits to said shaft a rotary motion about said rotation axis; - a slider mounted sliding on said shaft, wherein said slider comprises means for converting said rotary motion into a reciprocating translational motion according to said longitudinal axis, so that a first direction of rotation of said shaft corresponds to a first direction of translation of said slider along said shaft, and a second direction of rotation of said shaft, opposite said first direction, corresponds to a second direction of translation of said slider along said shaft. - a servo motor; - a shaft, having a rotation axis connected to said servo motor, wherein said servo motor transmits to said shaft a rotary motion about said rotation axis; - a slider mounted sliding on said shaft, wherein said slider comprises means for converting said rotary motion into a reciprocating translational motion according to said longitudinal axis, so that a first direction of rotation of said shaft corresponds to a first direction of translation of said slider along said shaft, and a second direction of rotation of said shaft, opposite said first direction, corresponds to a second direction of translation of said slider along said shaft.
A method for controlling a flow, comprising: moving an interface surface in response to a pressure associated with at least one wave having at least one frequency, the pressure being exerted on the interface surface by the flow; receiving the at least one wave via a subsurface feature extending from the interface surface, the subsurface feature comprising a phononic crystal or local resonant metamaterial; altering a phase of the at least one wave via the subsurface feature; and vibrating, in response to the altered phase of the at least one wave, the interface surface at a frequency, phase, and amplitude; wherein: the subsurface feature has a phase relation that is negative at the at least one frequency of the at least one wave; and the subsurface feature controls the interface surface such that the amplitude of said vibrating induces stabilization of the flow. moving an interface surface in response to a pressure associated with at least one wave having at least one frequency, the pressure being exerted on the interface surface by the flow; receiving the at least one wave via a subsurface feature extending from the interface surface, the subsurface feature comprising a phononic crystal or local resonant metamaterial; altering a phase of the at least one wave via the subsurface feature; and vibrating, in response to the altered phase of the at least one wave, the interface surface at a frequency, phase, and amplitude; wherein: the subsurface feature has a phase relation that is negative at the at least one frequency of the at least one wave; and the subsurface feature controls the interface surface such that the amplitude of said vibrating induces stabilization of the flow. the subsurface feature has a phase relation that is negative at the at least one frequency of the at least one wave; and the subsurface feature controls the interface surface such that the amplitude of said vibrating induces stabilization of the flow.
A kit comprising a) a reaction product of: i) one or more aromatic Michael addition donor materials comprising two or more active methylene hydrogens and at least two optionally substituted benzoyl-moieties; wherein the Michael addition donor material is dibenzoylmethane, a substituted dibenzoylmethane derivative, or a combination thereof; with ii) one or more Michael addition acceptor materials, wherein the Michael addition acceptor material is selected from the group consisting of mono, di-, tri- or multi-functional (meth)acrylates, polyester (meth)acrylates, and halogenated organic acids or esters; wherein the reaction product is capable of initiating a free radical polymerization reaction when used in combination with a synergist; and b) a synergist selected from the group consisting of amines, thiols, and combinations thereof; wherein the reaction product a) and the synergist b) are incorporated into a single composition; or wherein the reaction product a) and the synergist b) are in separate compositions; wherein each Michael addition donor material-derived moiety present in the reaction product is covalently attached to a single Michael addition acceptor-derived moiety. a) a reaction product of: i) one or more aromatic Michael addition donor materials comprising two or more active methylene hydrogens and at least two optionally substituted benzoyl-moieties; wherein the Michael addition donor material is dibenzoylmethane, a substituted dibenzoylmethane derivative, or a combination thereof; with ii) one or more Michael addition acceptor materials, wherein the Michael addition acceptor material is selected from the group consisting of mono, di-, tri- or multi-functional (meth)acrylates, polyester (meth)acrylates, and halogenated organic acids or esters; wherein the reaction product is capable of initiating a free radical polymerization reaction when used in combination with a synergist; and i) one or more aromatic Michael addition donor materials comprising two or more active methylene hydrogens and at least two optionally substituted benzoyl-moieties; wherein the Michael addition donor material is dibenzoylmethane, a substituted dibenzoylmethane derivative, or a combination thereof; with ii) one or more Michael addition acceptor materials, wherein the Michael addition acceptor material is selected from the group consisting of mono, di-, tri- or multi-functional (meth)acrylates, polyester (meth)acrylates, and halogenated organic acids or esters; wherein the reaction product is capable of initiating a free radical polymerization reaction when used in combination with a synergist; and b) a synergist selected from the group consisting of amines, thiols, and combinations thereof; wherein the reaction product a) and the synergist b) are incorporated into a single composition; or wherein the reaction product a) and the synergist b) are in separate compositions; wherein each Michael addition donor material-derived moiety present in the reaction product is covalently attached to a single Michael addition acceptor-derived moiety.
Device for inductive energy transfer with at least one induction unit (10a-e), which comprises at least one induction element (12a-e), and with at least one contact plane (14a-e), wherein the at least one induction element (12a-e) extends at least in a subarea (16a-e) along a first main extension plane (18a-e), which deviates from the contact plane (14a-e), wherein the first main extension plane (18a-e) runs obliquely or at right angles to the contact plane (14a-e), wherein the at least one induction element (12a-e) has a first section (20a-e) and at least one second section (22a-e), wherein the first section (20a-e) extends at least substantially within a second main extension plane (24a-e) and the second section (22a-e) extends at least substantially within a third main extension plane (26a-e) which differs from the second main extension plane (24a-e), characterised in that the second main extension plane (24a-e) and the third main extension plane (26a-e) run at least substantially parallel to one another.
The use as fragrance of a compound of formula (I) in the form of any one of its stereoisomers or a mixture thereof wherein R is hydrogen or methyl, and n is 3. wherein R is hydrogen or methyl, and n is 3.
An agricultural baler , comprising: a chassis ; a coupler carried by the chassis and configured for connecting to a power source; a bale forming chamber carried by the chassis and comprising an apron assembly comprising at least one chain and a drive roll coupled to the at least one chain and the coupler ; an apron tensioning system coupled to the at least one chain and configured to control a baling pressure exerted on a bale forming in the bale forming chamber ; and a bale release coupled to the bale forming chamber and configured to release a fully formed bale from the bale forming chamber ; a controller operatively coupled to the apron tensioning system and the bale release , the controller being configured to: set a release size of the fully formed bale defining when the fully formed bale is released; receive a power take-off (PTO) power consumption signal or an available power signal; and determine a maximum available power based on the received signal; characterized in that the controller is further configured to: compare the maximum available power to a threshold power; and output a control signal to the apron tensioning system to decrease the baling pressure without changing the release size when the maximum available power is at a predetermined power value, relative to the threshold power. a chassis ; a coupler carried by the chassis and configured for connecting to a power source; a bale forming chamber carried by the chassis and comprising an apron assembly comprising at least one chain and a drive roll coupled to the at least one chain and the coupler ; an apron tensioning system coupled to the at least one chain and configured to control a baling pressure exerted on a bale forming in the bale forming chamber ; and a bale release coupled to the bale forming chamber and configured to release a fully formed bale from the bale forming chamber ; a controller operatively coupled to the apron tensioning system and the bale release , the controller being configured to: set a release size of the fully formed bale defining when the fully formed bale is released; receive a power take-off (PTO) power consumption signal or an available power signal; and determine a maximum available power based on the received signal; set a release size of the fully formed bale defining when the fully formed bale is released; receive a power take-off (PTO) power consumption signal or an available power signal; and determine a maximum available power based on the received signal; characterized in that the controller is further configured to: compare the maximum available power to a threshold power; and output a control signal to the apron tensioning system to decrease the baling pressure without changing the release size when the maximum available power is at a predetermined power value, relative to the threshold power. compare the maximum available power to a threshold power; and output a control signal to the apron tensioning system to decrease the baling pressure without changing the release size when the maximum available power is at a predetermined power value, relative to the threshold power.
Motorized joint for connecting two carriers of a programmable automatic moving device, which carriers can be moved relative to one another and which automatic moving device has a drive motor and a locking apparatus , wherein a strain wave gear mechanism is connected downstream of the drive motor in drive terms and the locking apparatus is configured and arranged to directly brake and lock a gear mechanism component of the strain wave gear mechanism, and wherein the locking apparatus has a locking means which is connected in a frictionally locking manner to the gear mechanism component which can be braked by means of the locking apparatus, which locking means has at least one positively locking means which, in the switched-on state of the locking apparatus , interacts in a positively locking manner with a corresponding positively locking means which is rotationally fixed relative to a housing or a chassis, wherein a. there is an adjustable prestressing means or a prestressing means which has a plate spring or a corrugated and/or elastic and/or cylindrically curved strip, in particular a sheet metal strip, or a slotted ring for generating or for increasing the frictional force, and/or b. the corresponding positively locking means has a radially movable lock pin , the free end of which engages into a latching recess of the positively locking means in the switched-on state of the locking apparatus . a. there is an adjustable prestressing means or a prestressing means which has a plate spring or a corrugated and/or elastic and/or cylindrically curved strip, in particular a sheet metal strip, or a slotted ring for generating or for increasing the frictional force, and/or b. the corresponding positively locking means has a radially movable lock pin , the free end of which engages into a latching recess of the positively locking means in the switched-on state of the locking apparatus .
A power sourcing equipment for an optical power supply system (1A1), comprising: a semiconductor laser configured to oscillate with electric power, thereby outputting feed light to a powered device ; and a photoelectric conversion element for feedback, wherein the photoelectric conversion element is configured to convert feedback feed light into electric power, the feedback feed light being from the powered device , and to output the electric power as a portion of a driving power for the semiconductor laser , characterised in that , the driving power for the semiconductor laser is covered by the electric power converted from the feedback feed light and an electric power newly provided from a power source sc that the semiconductor laser is configured to output the feed light with a constant energy value. a semiconductor laser configured to oscillate with electric power, thereby outputting feed light to a powered device ; and a photoelectric conversion element for feedback, wherein the photoelectric conversion element is configured to convert feedback feed light into electric power, the feedback feed light being from the powered device , and to output the electric power as a portion of a driving power for the semiconductor laser , characterised in that , the driving power for the semiconductor laser is covered by the electric power converted from the feedback feed light and an electric power newly provided from a power source sc that the semiconductor laser is configured to output the feed light with a constant energy value.
A silicon and graphite containing composite material comprising a plurality of silicon nanoparticles coated with graphite particles, few-layer graphene particles, graphite nanoparticles, a carbon matrix, and an amorphous carbon external shell, wherein each of the graphite particle coated silicon nanoparticles, the few-layer graphene particles, and the graphite nanoparticles are held within the carbon matrix.