mhurhangee/ep-ind-claims huggingface dataset:
A transfer tape (100, 101, 102), comprising: a removable template layer having a structured surface; a backfill layer having a first surface disposed on at least a portion of the structured surface of the template layer, and a second surface opposite the structured surface wherein the second surface comprises a microstructured surface; a layer disposed on at least a portion of the microstructured surface, wherein the layer has a refractive index that differs from the backfill layer, wherein the microstructured surface together with the layer disposed on at least a portion of the microstructured surface is an anisotropic diffuser, wherein the microstructured surface is more diffusive along a first direction and less diffusive along a second direction orthogonal to the first direction. a removable template layer having a structured surface; a backfill layer having a first surface disposed on at least a portion of the structured surface of the template layer, and a second surface opposite the structured surface wherein the second surface comprises a microstructured surface; a layer disposed on at least a portion of the microstructured surface, wherein the layer has a refractive index that differs from the backfill layer, wherein the microstructured surface together with the layer disposed on at least a portion of the microstructured surface is an anisotropic diffuser, wherein the microstructured surface is more diffusive along a first direction and less diffusive along a second direction orthogonal to the first direction.
A coating composition comprising: (a) a melamine resin comprising imino and methylol functional groups that together comprise 30 mole% or greater of the total functionality of the melamine resin; and (b) at least one polymer reactive with (a) that is obtained from components comprising polytetrahydrofuran and a carboxylic acid or anhydride thereof, wherein the polytetrahydrofuran comprises greater than 20 weight % of the components that form the polymer (b) and the carboxylic acid or anhydride thereof comprises greater than 5 weight % of the components that form the polymer (b), wherein the polymer (b) has an acid value of at least 15 based on the total resin solids of the polymer (b); and wherein the acid functionality of the polymer (b) has a pKa of less than 5. (a) a melamine resin comprising imino and methylol functional groups that together comprise 30 mole% or greater of the total functionality of the melamine resin; and (b) at least one polymer reactive with (a) that is obtained from components comprising polytetrahydrofuran and a carboxylic acid or anhydride thereof, wherein the polytetrahydrofuran comprises greater than 20 weight % of the components that form the polymer (b) and the carboxylic acid or anhydride thereof comprises greater than 5 weight % of the components that form the polymer (b), wherein the polymer (b) has an acid value of at least 15 based on the total resin solids of the polymer (b); and wherein the acid functionality of the polymer (b) has a pKa of less than 5.
A method for operating a wind turbine, the method comprising: providing a predetermined cut-in wind speed for the wind turbine based on at least one estimated environmental condition for a wind turbine site; determining one or more actual environmental conditions near the wind turbine for a predetermined time period at the wind turbine site; determining a variance being a value that represents the difference between the at least one estimated environmental condition and the one or more actual environmental conditions; calculating a dynamic cut-in wind speed based on the variance and the predetermined cut-in wind speed; and operating the wind turbine based on the dynamic cut-in wind speed so as to increase wind turbine operational efficiency. providing a predetermined cut-in wind speed for the wind turbine based on at least one estimated environmental condition for a wind turbine site; determining one or more actual environmental conditions near the wind turbine for a predetermined time period at the wind turbine site; determining a variance being a value that represents the difference between the at least one estimated environmental condition and the one or more actual environmental conditions; calculating a dynamic cut-in wind speed based on the variance and the predetermined cut-in wind speed; and operating the wind turbine based on the dynamic cut-in wind speed so as to increase wind turbine operational efficiency.
A packet processing method, wherein the method comprises: receiving, by a forwarding plane, an item from a control plane of the forwarding plane, wherein the item comprises an identifier of a connected terminal; receiving, by the forwarding plane, an access protocol packet; when the forwarding plane determines that the access protocol packet is not an authentication start packet, determining, by the forwarding plane according to the identifier of the connected terminal, whether a terminal served by the access protocol packet is the connected terminal, wherein the authentication start packet is an authentication packet that is used to start an authentication process for a terminal served by the authentication start packet; and discarding, by the forwarding plane, the access protocol packet when the access protocol packet is not the authentication start packet and the terminal served by the access protocol packet is not the connected terminal. receiving, by a forwarding plane, an item from a control plane of the forwarding plane, wherein the item comprises an identifier of a connected terminal; receiving, by the forwarding plane, an access protocol packet; when the forwarding plane determines that the access protocol packet is not an authentication start packet, determining, by the forwarding plane according to the identifier of the connected terminal, whether a terminal served by the access protocol packet is the connected terminal, wherein the authentication start packet is an authentication packet that is used to start an authentication process for a terminal served by the authentication start packet; and discarding, by the forwarding plane, the access protocol packet when the access protocol packet is not the authentication start packet and the terminal served by the access protocol packet is not the connected terminal.
A radio wave measurement system comprising: - an aerial moving body to move or to hover above a measurement target antenna for radiating a radio wave in a sky direction; - a position measurer (18, 51) to measure a position of the aerial moving body; - a measurement antenna mounted on the aerial moving body and to receive the radio wave; - a radio wave measurer mounted on the aerial moving body and to measure received radio wave data including at least one of an amplitude and a phase of the radio wave received by the measurement antenna; - a radiated radio wave data generator to generate radiated radio wave data including the received radio wave data and radio wave source relative position data representing measurement point data as a position relative to the measurement target antenna, the measurement point data being data of a position of the aerial moving body at a point of time when the received radio wave data is measured; characterised in that the radio wave measurement system further comprises: a power reception antenna mounted on the aerial moving body and to receive the radio wave, wherein the measurement target antenna is a power transmission antenna to transmit power by the radiated radio wave, and at least one of the aerial moving body and the radio wave measurer utilizes the power obtained from the radio wave received by the power reception antenna. - an aerial moving body to move or to hover above a measurement target antenna for radiating a radio wave in a sky direction; - a position measurer (18, 51) to measure a position of the aerial moving body; - a measurement antenna mounted on the aerial moving body and to receive the radio wave; - a radio wave measurer mounted on the aerial moving body and to measure received radio wave data including at least one of an amplitude and a phase of the radio wave received by the measurement antenna; - a radiated radio wave data generator to generate radiated radio wave data including the received radio wave data and radio wave source relative position data representing measurement point data as a position relative to the measurement target antenna, the measurement point data being data of a position of the aerial moving body at a point of time when the received radio wave data is measured; a power reception antenna mounted on the aerial moving body and to receive the radio wave, wherein the measurement target antenna is a power transmission antenna to transmit power by the radiated radio wave, and at least one of the aerial moving body and the radio wave measurer utilizes the power obtained from the radio wave received by the power reception antenna.
A polypropylene composition comprising: A) from 88.0 wt. % to 98.0 wt. %, of a copolymer of propylene containing from 0.8 wt. % to 4.8 wt. % of 1-hexene derived units; said random copolymers of propylene having: - a Melt Flow Rate: measured according to ISO 1133 (230 °C, 5 Kg) ranging from 0.5 to 4.4 g/10 min; B) from 2.0 wt. % to 12.0 wt. % of a terpolymer of propylene ethylene and 1-hexene having a content of ethylene derived units ranging from 35 wt. % to 60 wt. %; and a content of 1-hexene derived units ranging from 1 wt. % to 6 wt. %; wherein the polypropylene composition is endowed with a Melt Flow Rate: measured according to ISO 1133 (230 °C, 5 Kg) ranging from 0.5 to 5.0 g/10 min; the sum of the amounts of A) and B) being 100. A) from 88.0 wt. % to 98.0 wt. %, of a copolymer of propylene containing from 0.8 wt. % to 4.8 wt. % of 1-hexene derived units; said random copolymers of propylene having: - a Melt Flow Rate: measured according to ISO 1133 (230 °C, 5 Kg) ranging from 0.5 to 4.4 g/10 min; - a Melt Flow Rate: measured according to ISO 1133 (230 °C, 5 Kg) ranging from 0.5 to 4.4 g/10 min; B) from 2.0 wt. % to 12.0 wt. % of a terpolymer of propylene ethylene and 1-hexene having a content of ethylene derived units ranging from 35 wt. % to 60 wt. %; and a content of 1-hexene derived units ranging from 1 wt. % to 6 wt. %;
Convertible system for a hard top convertible vehicle that comprises two segments located sideways which connect the front pillars and the back pillars and two symmetric elements in the middle part of the ceiling (2a,2b) which split apart the ceiling in the middle from the top of the ' windshield frame to the top of the rear window frame characterized in that the rear panel comprises the rear window and a frame-like area formed by parts of the rear pillars and a part of the ceiling, is moved and fixed on top of the trunk lid, and that in the open position of the hard top, the interior side of the rear window is facing down and the exterior side of the rear window is facing up, exposed, without any other convertible roof elements on top of it, the upper areas of the rear wings (7a,7b) open to the sides forming two openings to access the lateral areas of the convertible roof (3a,3b,4a,4b) inside the trunk, and that the two symmetrical assemblies formed by the rear pillars (4a,4b), the connecting segments (3a,3b) of the front pillars and the rear pillars and the horizontal elements of the ceiling move to the rear of the vehicle and fold compactly through the openings made by the upper parts of the rear wings (7a,7b) into the lateral sides of the trunk.
Elastic shaft coupling comprising an drive flange and an driven flange, between which elastically deformable elastomeric bodies are arranged, each having the shape of ring segments and arranged in at least two axially adjoining rings surrounding the axis of the shaft coupling, wherein the elastomeric bodies forming the rings are arranged offset to one another in the circumferential direction and are connected undetachably, on their front faces axially-adjoining the drive flange or the driven flange, to connecting flange segments which can be axially screwed to the drive flange or the driven flange, and are undetachably connected, on the axially-adjoining front faces, with connecting flange segments, which segments can be axially screwed to one another, characterized in that the connecting flange segments of the elastomeric bodies are in each case provided with step-like engaging protrusions and recesses (6a, 6b) engaging one another on their ends adjoining in the circumferential direction, which protrusions and recesses can be screwed to one another and to the connecting flange segment, adjoining in the axial direction, of the elastomeric body adjacent in the axial direction.
A seat adjuster, comprising a brake, which acts between a fixed part and an adjustable part and by means of which the adjustable part can be blocked in different positions on the fixed part and which can be released by means of a release element, an adjustment element, which acts on the release element, for selectively adjusting the adjustable part in two opposite directions, and a locking element, which automatically engages and interlockingly locks the adjustable part to the fixed part when the adjustment element is not actuated and automatically disengages when the adjustment element is actuated, wherein the disengagement of the locking element and the adjustment of the adjustable part can be effected by moving the adjustment element out of a neutral position in one of the two directions, and the locking element has a toothed segment for meshing with a toothed ring coupled to the adjustable part, the locking element being movable between a locking position, in which the locking element meshes with the toothed ring, and a release position, in which the locking element is moved away from the toothed ring, characterized in that the locking element is guided on the fixed part in such a way that it is slidable in the radial direction of the toothed ring between the locking position and the release position, the brake is a clamp roll type freewheel brake the release element of which forms the toothed ring and is in engagement with the adjustable part such that a relative rotation of the release element and the adjustable part is possible only within a limited play, and the adjustment element is provided with a radially movable slide which has another toothed segment for engagement with the toothed ring.
Method for the processing of keys, in particular for the encryption of said keys by means of a flute end mill, wherein it is obtained by means of a flute end mill at least one hollow (5, 7) on an at least one face (2', 2") of the stem of said key to be processed, and characterized in that: - a squashing step is carried out of any burrs deriving from the processing carried out by means of said flute end mill, said squashing step provides to push each face (2', 2") of the stem of the key in contact with a flat and uniform surface (23, 26) of a corresponding element (20, 22), or vice versa, so as to flatten any burrs against and on the same face (2', 2") in which the burrs themselves are provided. - a squashing step is carried out of any burrs deriving from the processing carried out by means of said flute end mill, said squashing step provides to push each face (2', 2") of the stem of the key in contact with a flat and uniform surface (23, 26) of a corresponding element (20, 22), or vice versa, so as to flatten any burrs against and on the same face (2', 2") in which the burrs themselves are provided.
A method for data storage, the method comprising: receiving a first request at a storage device, the first request being associated with a first protocol that is a memory protocol; converting address information associated with the first request to logical block address, LBA, information; determining, by the storage device, a first group of contiguous physical block addresses associated with the first request and associated with a first application, based on a data placement configuration of the storage device; and performing a first memory operation at the first group, based on the first request, wherein: the first group is associated with a first area (B2, B3, B5); and the storage device comprises a second group associated with a second area of contiguous physical block addresses that are separated from the first group and associated with a second application. receiving a first request at a storage device, the first request being associated with a first protocol that is a memory protocol; converting address information associated with the first request to logical block address, LBA, information; determining, by the storage device, a first group of contiguous physical block addresses associated with the first request and associated with a first application, based on a data placement configuration of the storage device; and performing a first memory operation at the first group, based on the first request, wherein: the first group is associated with a first area (B2, B3, B5); and the storage device comprises a second group associated with a second area of contiguous physical block addresses that are separated from the first group and associated with a second application. the first group is associated with a first area (B2, B3, B5); and the storage device comprises a second group associated with a second area of contiguous physical block addresses that are separated from the first group and associated with a second application.
An analysis cartridge for biological fluid sample, comprising: a housing having a channel (36,38) and an analysis chamber, wherein the channel (36,38) is in fluid communication with the analysis chamber, and the channel (36,38) includes at least one hydrophobic wall surface; and a dried deposit of a dye and dissolution additive mixture, wherein the dissolution additive is for facilitating the dissolution of the dye within the fluid sample, wherein the dye and dissolution additive mixture is premixed prior to being disposed within the housing and which mixture is miscible with the fluid sample, wherein the mixture is disposed within the housing in a manner such that it can be admixed with fluid sample at the time the sample is deposited in the housing, or subsequently during passage within the housing, or both. a housing having a channel (36,38) and an analysis chamber, wherein the channel (36,38) is in fluid communication with the analysis chamber, and the channel (36,38) includes at least one hydrophobic wall surface; and a dried deposit of a dye and dissolution additive mixture, wherein the dissolution additive is for facilitating the dissolution of the dye within the fluid sample, wherein the dye and dissolution additive mixture is premixed prior to being disposed within the housing and which mixture is miscible with the fluid sample, wherein the mixture is disposed within the housing in a manner such that it can be admixed with fluid sample at the time the sample is deposited in the housing, or subsequently during passage within the housing, or both.
A charger for an aerosol delivery device including a control body equipped with a power source, and a cartridge equipped with a heating element and containing an aerosol precursor composition, the charger comprising: a housing; a connector coupled to the housing and configured to engage the charger with the control body coupled or coupleable with the cartridge to form the aerosol delivery device; a power supply from which the power source rechargeable when the charger is engaged with the control body, the power supply comprising: a photovoltaic cell configured to convert light energy to electrical energy and generate a corresponding voltage output; and a buck converter configured to step down the corresponding voltage output to a lower voltage from which the power source is rechargeable; and an input device including a capacitive sensor configured to detect a user input indicating a selected voltage, the power supply being configured to adjust the corresponding voltage output to the selected voltage in response to the user input so detected, wherein the selected voltage is of a plurality of selectable voltages for which the buck converter includes a corresponding plurality of output terminals, and the power supply further comprises a plurality of arrays of resistors (R 1, R 2, R 3, R 4) each array of which is operatively coupled to a respective one of the corresponding plurality of output terminals and whose resistance is directly proportional to a respective one of the plurality of selectable voltages. a housing; a connector coupled to the housing and configured to engage the charger with the control body coupled or coupleable with the cartridge to form the aerosol delivery device; a power supply from which the power source rechargeable when the charger is engaged with the control body, the power supply comprising: a photovoltaic cell configured to convert light energy to electrical energy and generate a corresponding voltage output; and a buck converter configured to step down the corresponding voltage output to a lower voltage from which the power source is rechargeable; and a photovoltaic cell configured to convert light energy to electrical energy and generate a corresponding voltage output; and a buck converter configured to step down the corresponding voltage output to a lower voltage from which the power source is rechargeable; and an input device including a capacitive sensor configured to detect a user input indicating a selected voltage, the power supply being configured to adjust the corresponding voltage output to the selected voltage in response to the user input so detected, wherein the selected voltage is of a plurality of selectable voltages for which the buck converter includes a corresponding plurality of output terminals, and the power supply further comprises a plurality of arrays of resistors (R 1, R 2, R 3, R 4) each array of which is operatively coupled to a respective one of the corresponding plurality of output terminals and whose resistance is directly proportional to a respective one of the plurality of selectable voltages.
A method of controlling an internal combustion engine of a generator set in an event of disconnection of a local power network, which comprises the generator set, from a grid, the method comprising a phase to change a control mode of the generator set in the local power network from a kW mode to a speed droop mode, characterised in that the phase of changing from the kW mode to the speed droop mode comprises a delaying phase that comprises parallel sub phases to prohibit a droop function of the speed droop mode and keeping a speed reference value at a rated speed of the engine of the generator set, and after the delaying phase the method further comprising an activation phase to enable the droop function.