mhurhangee/patent-ind-claim-en huggingface dataset:
A fastener cartridge assembly, comprising: a cartridge body comprising a fastener cavity ; a fastener removably positioned in said fastener cavity ; a tissue thickness compensator releasably secured to said cartridge body ; a connector , wherein said connector secures said tissue thickness compensator to said cartridge body distal to said fastener cavity ; an actuator , wherein said actuator extends distally past said fastener in said fastener cavity when said actuator is in a pre-actuated position; and a firing element configured to move along a slot in said cartridge body , wherein said firing element is positioned to actuate said actuator at a position proximal of said fastener cavity , wherein said actuator is arranged to break said connector when said actuator is shifted distally to an actuated position, and wherein said firing element is arranged to then fire said fastener from said fastener cavity when said firing element moves distally along the slot . a cartridge body comprising a fastener cavity ; a fastener removably positioned in said fastener cavity ; a tissue thickness compensator releasably secured to said cartridge body ; a connector , wherein said connector secures said tissue thickness compensator to said cartridge body distal to said fastener cavity ; an actuator , wherein said actuator extends distally past said fastener in said fastener cavity when said actuator is in a pre-actuated position; and a firing element configured to move along a slot in said cartridge body , wherein said firing element is positioned to actuate said actuator at a position proximal of said fastener cavity , wherein said actuator is arranged to break said connector when said actuator is shifted distally to an actuated position, and wherein said firing element is arranged to then fire said fastener from said fastener cavity when said firing element moves distally along the slot .
An electrostatic charge image developing toner comprising: toner particles; and strontium titanate particles A and strontium titanate particles B having different average primary particle diameters from each other, wherein the strontium titanate particles B have an average primary particle diameter Db of 10 nm to 100 nm, and an average primary particle diameter Da of the strontium titanate particles A and the average primary particle diameter Db of the strontium titanate particles B satisfy a relationship of 10 ≦ Da/Db ≦ 100, wherein the average primary particle diameter is measured in accordance with the method as defined in the description, and. wherein a full width at half maximum of a peak of the 110 plane obtained by an X-ray diffraction method from the strontium titanate particles B is 0.2° to 2.0°, wherein the full width at half maximum of a peak of the 110 plane is measured in accordance with the method as defined in the description, and wherein primary particles of the strontium titanate particles B have an average circularity of 0.82 to 0.94, wherein the average circularity is measured in accordance with the method as defined in the description, and a circularity that becomes 84% of accumulation of greater than 0.92, wherein the circularity that becomes 84% of accumulation is measured in accordance with the method as defined in the description. toner particles; and strontium titanate particles A and strontium titanate particles B having different average primary particle diameters from each other, wherein the strontium titanate particles B have an average primary particle diameter Db of 10 nm to 100 nm, and an average primary particle diameter Da of the strontium titanate particles A and the average primary particle diameter Db of the strontium titanate particles B satisfy a relationship of 10 ≦ Da/Db ≦ 100, wherein the average primary particle diameter is measured in accordance with the method as defined in the description, and. wherein a full width at half maximum of a peak of the 110 plane obtained by an X-ray diffraction method from the strontium titanate particles B is 0.2° to 2.0°, wherein the full width at half maximum of a peak of the 110 plane is measured in accordance with the method as defined in the description, and wherein primary particles of the strontium titanate particles B have an average circularity of 0.82 to 0.94, wherein the average circularity is measured in accordance with the method as defined in the description, and a circularity that becomes 84% of accumulation of greater than 0.92, wherein the circularity that becomes 84% of accumulation is measured in accordance with the method as defined in the description.
A method for performing, by a first device , wireless communication, the method comprising: receiving (S810, S1010), from a second device , latency bound related to an inter UE coordination, IUC, information report; receiving (S820, S1020), from the second device , an IUC request; triggering (S830, S1030) the IUC information reporting procedure, based on the IUC request; determining to include non-preferred resource set information into IUC information; determining to apply timer based mechanism to the triggered IUC information reporting procedure, wherein the timer based mechanism is applied to the IUC information reporting procedure only when the non-preferred resource set information is included in the IUC information; starting (S840, S1040) an IUC report timer related to a transmission of the IUC information, based on the triggered IUC information reporting procedure, wherein a timer value of the IUC report timer is the same as the latency bound; transmitting (S850, S1050), to the second device , the IUC information, based on the IUC report timer being running; stopping (S 1060) the IUC report timer, based on the IUC information being transmitted; and canceling (S1070) the triggered IUC information reporting procedure, based on the IUC information being transmitted. receiving (S810, S1010), from a second device , latency bound related to an inter UE coordination, IUC, information report; receiving (S820, S1020), from the second device , an IUC request; triggering (S830, S1030) the IUC information reporting procedure, based on the IUC request; determining to include non-preferred resource set information into IUC information; determining to apply timer based mechanism to the triggered IUC information reporting procedure, wherein the timer based mechanism is applied to the IUC information reporting procedure only when the non-preferred resource set information is included in the IUC information; starting (S840, S1040) an IUC report timer related to a transmission of the IUC information, based on the triggered IUC information reporting procedure, wherein a timer value of the IUC report timer is the same as the latency bound; transmitting (S850, S1050), to the second device , the IUC information, based on the IUC report timer being running; stopping (S 1060) the IUC report timer, based on the IUC information being transmitted; and canceling (S1070) the triggered IUC information reporting procedure, based on the IUC information being transmitted.
A computer enabled method for controlling distribution of encrypted media content to a player having an associated host device , the method comprising the acts of: the player exchanging authentication data with its host device; receiving an encrypted token at the player from the host device in response to an external source having been sent a token request from the host device; sending identification data from the player directly to the external source, the data including the encrypted token and an identifier of the player; accessing at the player, in response to the source having been sent the encrypted token from the player, at least one key received directly from the source by the player and relating to decryption of the media content to be distributed and an additional token for a subsequent request by the player for media content; receiving at the player the encrypted media content; and decrypting the encrypted media content using the at least one key. the player exchanging authentication data with its host device; receiving an encrypted token at the player from the host device in response to an external source having been sent a token request from the host device; sending identification data from the player directly to the external source, the data including the encrypted token and an identifier of the player; accessing at the player, in response to the source having been sent the encrypted token from the player, at least one key received directly from the source by the player and relating to decryption of the media content to be distributed and an additional token for a subsequent request by the player for media content; receiving at the player the encrypted media content; and decrypting the encrypted media content using the at least one key.
Process for improving the barrier properties of polymer dispersion coated paper-based flexible packaging materials comprising the step of applying an Al 2 O 3 coating having a thickness in the range of 8 - 70 nm, to at least one surface of the dispersion coated paper-based flexible packaging material, wherein the Al2O3 coating is applied to the surface of the polymer dispersion coated paper-based flexible packaging material by atomic layer deposition at a temperature in the range of 40°C - 80 °C with trimethylaluminum (TMA) and H2O or O2 as precursors, characterised in that the process further comprises a plasma pre-treatment of the surface of the polymer dispersion coated paper-based flexible packaging material before the Al 2 O 3 coating is applied.
An electrolyte composition comprising, in combination: an organosilicon compound and an imide salt and optionally LiPF6; wherein when subjected to cyclic voltammetry at a plurality of cycles ranging from about 3V to about 5V and using a cathode current collector comprising aluminum versus Li/Li+ electrodes the composition exhibits an oxidative corrosion current of about 0.10 mA/cm 2 or less for a second and subsequent cycles; wherein the organosilicon compound is selected from the group consisting of Formula I or Formula II: wherein R 1 , R 2 , and R 3 are the same or different and are independently selected from the group consisting of C1 to C6 linear or branched alkyl and halogen, provided that at least one of R 1 , R 2 , or R 3 is halogen; "Spacer" is selected from the group consisting of C1 to C6 linear or branched alkylene, alkenylene, or alkynylene, or "Spacer" is absent, provided that when "Spacer" is absent, Y is present; Y is absent or is selected from the group consisting of -(O-CH 2 -CH 2 ) n - and wherein each subscript "n" is the same or different and is an integer from 1 to 15, and subscript "x" is an integer from 1 to 15; and each R 4 is the same or different and is selected from the group consisting of cyano (-CN), cyanate (-OCN), isocyanate (-NCO), thiocyanate (-SCN) and isothiocyanate (-NCS); and wherein the composition exhibits a differential scanning calorimetric (DSC) response onset temperature that is at least 5°C higher than a corresponding DSC response onset temperature of the organosilicon compound absent the imide salt. an organosilicon compound and an imide salt and optionally LiPF6; wherein when subjected to cyclic voltammetry at a plurality of cycles ranging from about 3V to about 5V and using a cathode current collector comprising aluminum versus Li/Li+ electrodes the composition exhibits an oxidative corrosion current of about 0.10 mA/cm 2 or less for a second and subsequent cycles; wherein the organosilicon compound is selected from the group consisting of Formula I or Formula II: wherein R 1 , R 2 , and R 3 are the same or different and are independently selected from the group consisting of C1 to C6 linear or branched alkyl and halogen, provided that at least one of R 1 , R 2 , or R 3 is halogen; "Spacer" is selected from the group consisting of C1 to C6 linear or branched alkylene, alkenylene, or alkynylene, or "Spacer" is absent, provided that when "Spacer" is absent, Y is present; Y is absent or is selected from the group consisting of -(O-CH 2 -CH 2 ) n - and wherein each subscript "n" is the same or different and is an integer from 1 to 15, and subscript "x" is an integer from 1 to 15; and each R 4 is the same or different and is selected from the group consisting of cyano (-CN), cyanate (-OCN), isocyanate (-NCO), thiocyanate (-SCN) and isothiocyanate (-NCS); and wherein the composition exhibits a differential scanning calorimetric (DSC) response onset temperature that is at least 5°C higher than a corresponding DSC response onset temperature of the organosilicon compound absent the imide salt.
Method for hindering non-authorised sample of a liquid from at least one offtake conduit connected to a main conduit for the transport of said liquid, in particular a mixture of hydrocarbons and water, said main conduit having one inlet port and at least one outlet port between which said liquid flows, said method comprising the step of: - introducing a plurality of solid objects into said main conduit through said at least one inlet port , said plurality of introduced solid objects having weight, size and density such as to be transportable towards said at least one outlet port by the main flow of said liquid, such as to be able to be possibly captured by the offtake flow of said liquid directed towards said offtake conduit, and such as to be able to possibly at least partially obstruct such offtake conduit - collecting - through said at least one outlet port - the plurality of solid objects transported by the main flow of said liquid; the method being charaterised by the following step - detecting the presence of at least one offtake conduit on the basis of the difference between the number of said introduced objects and the number of said collected objects, the presence of at least one offtake conduit being detected if the number of the collected objects is different from the number of the introduced objects, said detection allowing the actuation of the procedures aimed at localising and removing the offtake conduit . - introducing a plurality of solid objects into said main conduit through said at least one inlet port , said plurality of introduced solid objects having weight, size and density such as to be transportable towards said at least one outlet port by the main flow of said liquid, such as to be able to be possibly captured by the offtake flow of said liquid directed towards said offtake conduit, and such as to be able to possibly at least partially obstruct such offtake conduit - collecting - through said at least one outlet port - the plurality of solid objects transported by the main flow of said liquid; the method being charaterised by the following step - detecting the presence of at least one offtake conduit on the basis of the difference between the number of said introduced objects and the number of said collected objects, the presence of at least one offtake conduit being detected if the number of the collected objects is different from the number of the introduced objects, said detection allowing the actuation of the procedures aimed at localising and removing the offtake conduit .
An electrode for a plasma reactor , the electrode comprising an elongate body having an inlet end and an opposed outlet end , a reaction region extending along a portion of the elongate body , a first sealing region located between the reaction region and the inlet end of the elongate body and a second sealing region located between the reaction region and the outlet end of the elongate body , wherein the first sealing region and the second sealing region each comprise a plurality of receiving portions adapted to receive a sealing member therein, characterized in that a barrier member adapted to reduce or eliminate the flow of fluid between the receiving portions is provided between each of the plurality of receiving portions .
A base station or user equipment method of configuring transmissions over a radio bearer between a base station and user equipment of a wireless telecommunication network, said method comprising: preconfiguring said user equipment to support transmissions over a plurality of transport channels of said radio bearer, wherein said plurality of transport channels comprises RACH and E-DCH, said plurality of transport channels being associated with a communication stale of said user equipment, each of said plurality of transport channels being mappable with logical channels of said radio bearer, said logical channels providing information to be transmitted by said transport channels; and remapping said logical channels onto a different one of said plurality of transport channels in response to one of a layer 1 and a layer 2 message transmitted between said base station and said user equipment said message indicating said different one of said plurality of transport channels to be used to support said transmissions between said base station and said user equipment. preconfiguring said user equipment to support transmissions over a plurality of transport channels of said radio bearer, wherein said plurality of transport channels comprises RACH and E-DCH, said plurality of transport channels being associated with a communication stale of said user equipment, each of said plurality of transport channels being mappable with logical channels of said radio bearer, said logical channels providing information to be transmitted by said transport channels; and remapping said logical channels onto a different one of said plurality of transport channels in response to one of a layer 1 and a layer 2 message transmitted between said base station and said user equipment said message indicating said different one of said plurality of transport channels to be used to support said transmissions between said base station and said user equipment.
A nanofiltration (NF) or reverse osmosis (RO) membrane made of a diamond like carbon film, wherein the NF or RO membrane has a thickness of from 5 nm to 50 nm, and has pores penetrating the NF or RO membrane, and having a maximum pore diameter of less than 0.86 nm when the pore diameter is measured as identified in the description according to the Ferry-Renkin method.
Foamable or whippable food composition, in particular a cream, comprising at least 12 wt.% fat, protein, water, a citric acid ester of a mono- or diglyceride of one or more fatty acids comprising an unsaturated acyl chain and a lactic acid ester of a mono- or diglyceride of one or more fatty acids, the total content of substances other than water being at least 15 wt.% of the total weight of the composition.
A bidirectional optical communication link comprising - a first optical transmission link (OTL1) adapted to transmit an optical signal from a near-end location (NEL) via a first optical fiber (2-1) to a remote-end location (REL); and - a second optical transmission link (OTL2) adapted to transmit an optical signal from the remote-end location (REL) via a second optical fiber (2-2) to the near-end location(NEL); wherein at least one of the optical transmission links, (OTL1, OTL2) comprises a remote optically pumped amplifier (3-1,3-2) having a gain medium which is pumped with pump light received by said gain medium through a third optical fiber from a pump laser source provided at the near-end location or provided at the remote-end location to supply the gain medium of the remote optical pump amplifier (3-1,3-2) with pump power characterized by a safety mechanism comprising an optical detector provided at the remote-end location or provided at the near-end location (NEL) and adapted to receive the pump light through the third optical fiber , wherein the optical detector is adapted to trigger automatically a laser safety shutdown signal if a failure or interruption of the third optical fiber is detected by the optical detector to shut down the bidirectional optical communication link . - a first optical transmission link (OTL1) adapted to transmit an optical signal from a near-end location (NEL) via a first optical fiber (2-1) to a remote-end location (REL); and - a second optical transmission link (OTL2) adapted to transmit an optical signal from the remote-end location (REL) via a second optical fiber (2-2) to the near-end location(NEL); wherein at least one of the optical transmission links, (OTL1, OTL2) comprises a remote optically pumped amplifier (3-1,3-2) having a gain medium which is pumped with pump light received by said gain medium through a third optical fiber from a pump laser source provided at the near-end location or provided at the remote-end location to supply the gain medium of the remote optical pump amplifier (3-1,3-2) with pump power characterized by a safety mechanism comprising an optical detector provided at the remote-end location or provided at the near-end location (NEL) and adapted to receive the pump light through the third optical fiber , wherein the optical detector is adapted to trigger automatically a laser safety shutdown signal if a failure or interruption of the third optical fiber is detected by the optical detector to shut down the bidirectional optical communication link .
A space antenna comprising: an extendible boom movable between stored and deployed positions; an extendible hoop surrounding the extendible boom and movable between the stored and deployed positions; a front cord arrangement coupled to the extendible hoop and defining a curved shape in the deployed position; a reflective layer carried by the front cord arrangement; a rear cord arrangement behind the front cord arrangement and coupled between the extendible hoop and the extendible boom, the rear cord arrangement comprising a rear plurality of interconnected cords defining a plurality of rear polygons ; a plurality of tie cords extending between the front cord arrangement and the rear cord arrangement; and a top cord arrangement above the reflective layer and coupled between the hoop and the extendible boom. an extendible boom movable between stored and deployed positions; an extendible hoop surrounding the extendible boom and movable between the stored and deployed positions; a front cord arrangement coupled to the extendible hoop and defining a curved shape in the deployed position; a reflective layer carried by the front cord arrangement; a rear cord arrangement behind the front cord arrangement and coupled between the extendible hoop and the extendible boom, the rear cord arrangement comprising a rear plurality of interconnected cords defining a plurality of rear polygons ; a plurality of tie cords extending between the front cord arrangement and the rear cord arrangement; and a top cord arrangement above the reflective layer and coupled between the hoop and the extendible boom.