mhurhangee/patent-ind-claim-en huggingface dataset:
A fluid handling structure configured to confine immersion fluid to a region of a lithographic apparatus, the fluid handling structure comprising: an aperture formed therein for the passage there through of a projection beam through the immersion fluid; a first part ; and a second part ; and wherein at least one of the first part and the second part define a surface adapted for the extraction of the immersion fluid from the region; and wherein the fluid handling structure is adapted to provide a fluid flow into or out of the surface of the fluid handling structure and wherein movement of the first part relative to the second part is effective to change a position of the fluid flow into or out of the surface relative to the aperture, and wherein one of the first part and second part comprises at least one through-hole for the fluid flow there through and the other of the first part and second part comprises an opening for the fluid flow there through, the at least one through-hole and opening being in fluid communication when aligned, the movement allowing alignment of the opening with one of the at least one through-hole thereby to change the position of the fluid flow into or out of the surface relative to the aperture, characterised in that the opening is defined by an annular chamber provided above the plurality of through holes and the annular chamber has a relatively large volume compared to the combined volume of the through holes . an aperture formed therein for the passage there through of a projection beam through the immersion fluid; a first part ; and a second part ; and wherein at least one of the first part and the second part define a surface adapted for the extraction of the immersion fluid from the region; and wherein the fluid handling structure is adapted to provide a fluid flow into or out of the surface of the fluid handling structure and wherein movement of the first part relative to the second part is effective to change a position of the fluid flow into or out of the surface relative to the aperture, and wherein one of the first part and second part comprises at least one through-hole for the fluid flow there through and the other of the first part and second part comprises an opening for the fluid flow there through, the at least one through-hole and opening being in fluid communication when aligned, the movement allowing alignment of the opening with one of the at least one through-hole thereby to change the position of the fluid flow into or out of the surface relative to the aperture, characterised in that the opening is defined by an annular chamber provided above the plurality of through holes and the annular chamber has a relatively large volume compared to the combined volume of the through holes .
An umbrella comprising: a support assembly comprising an air pump , and a handle , wherein the pump is optionally incorporated into the handle ; and a canopy assembly comprising a plurality of support ribs attached to the handle , wherein the umbrella further comprises a hub attached to an upper portion of the handle , wherein each support rib is a rod or strip that is attached on one end to the hub through a corresponding articulated joint , a sheet attached to each of the support ribs , and a toroidal air bladder coupled to the pump , the air bladder disposed about the handle and engaging the support ribs , wherein, as the air bladder inflates, the enlarging air bladder contacts the support ribs , and pushes the support ribs away from the support assembly . a support assembly comprising an air pump , and a handle , wherein the pump is optionally incorporated into the handle ; and an air pump , and a handle , wherein the pump is optionally incorporated into the handle ; and a canopy assembly comprising a plurality of support ribs attached to the handle , wherein the umbrella further comprises a hub attached to an upper portion of the handle , wherein each support rib is a rod or strip that is attached on one end to the hub through a corresponding articulated joint , a sheet attached to each of the support ribs , and a toroidal air bladder coupled to the pump , the air bladder disposed about the handle and engaging the support ribs , wherein, as the air bladder inflates, the enlarging air bladder contacts the support ribs , and pushes the support ribs away from the support assembly . a plurality of support ribs attached to the handle , wherein the umbrella further comprises a hub attached to an upper portion of the handle , wherein each support rib is a rod or strip that is attached on one end to the hub through a corresponding articulated joint , a sheet attached to each of the support ribs , and a toroidal air bladder coupled to the pump , the air bladder disposed about the handle and engaging the support ribs , wherein, as the air bladder inflates, the enlarging air bladder contacts the support ribs , and pushes the support ribs away from the support assembly .
A method of manufacturing a spoke for a non-pneumatic tire, comprising: providing a first form ; placing a first component of the spoke and a second component of the spoke on the first form , the method being characterized by the steps of: providing a second form ; placing a third component of the spoke on the second form; transferring the first component and the second component to the second form ; transferring the first component, the second component, and the third component from the second form to a mold ; and applying heat and pressure to cure the first component, the second component, and the third component. providing a first form ; placing a first component of the spoke and a second component of the spoke on the first form , the method being characterized by the steps of: providing a second form ; placing a third component of the spoke on the second form; transferring the first component and the second component to the second form ; transferring the first component, the second component, and the third component from the second form to a mold ; and applying heat and pressure to cure the first component, the second component, and the third component. providing a second form ; placing a third component of the spoke on the second form; transferring the first component and the second component to the second form ; transferring the first component, the second component, and the third component from the second form to a mold ; and applying heat and pressure to cure the first component, the second component, and the third component.
An oligopeptide of the following formula: or a pharmaceutically acceptable acid or salt thereof, wherein: R 1 is substituted or unsubstituted alkyl or substituted or unsubstituted aryl; R 2 , R 3 , R 4 , and R 5 are each independently selected from H, substituted or unsubstituted alkyl and substituted or unsubstituted aryl; and X is O or NR 6 , wherein R 6 is hydrogen, substituted or unsubstituted alkyl, or substituted or unsubstituted aryl. R 1 is substituted or unsubstituted alkyl or substituted or unsubstituted aryl; R 2 , R 3 , R 4 , and R 5 are each independently selected from H, substituted or unsubstituted alkyl and substituted or unsubstituted aryl; and X is O or NR 6 , wherein R 6 is hydrogen, substituted or unsubstituted alkyl, or substituted or unsubstituted aryl.
A process of obtainment of a material deposited onto a substrate being performed by plasma-assisted chemical vapour deposition, said material comprising • at least a graphene layer and said graphene layer comprising nanocrystals interconnected by amorphous phase; • and said process characterised in that it comprises the following steps: a) placing the substrate into a vacuum chamber previously set at a pressure lower than 10-4 mbar and under an atmosphere of argon and hydrogen; b) setting the substrate of step a) to a first substrate temperature T1, wherein T1 reaches values between 400°C and 700°C; c) activating the plasma and adding a carbon source into the vacuum chamber for a time t1, wherein t1 reaches different values of less than 60 min, obtaining a sample formed by the substrate and the deposited material precursor; d) setting the sample obtained in step c) to a second substrate temperature T2, wherein T2 is T1 minus T3 wherein T3 reaches values between 30°C and 100°C for a time t2 wherein t2 is higher than t1, and e) deactivating the plasma and cooling the sample obtained in step d). • at least a graphene layer and said graphene layer comprising nanocrystals interconnected by amorphous phase; • and said process characterised in that it comprises the following steps: a) placing the substrate into a vacuum chamber previously set at a pressure lower than 10-4 mbar and under an atmosphere of argon and hydrogen; b) setting the substrate of step a) to a first substrate temperature T1, wherein T1 reaches values between 400°C and 700°C; c) activating the plasma and adding a carbon source into the vacuum chamber for a time t1, wherein t1 reaches different values of less than 60 min, obtaining a sample formed by the substrate and the deposited material precursor; d) setting the sample obtained in step c) to a second substrate temperature T2, wherein T2 is T1 minus T3 wherein T3 reaches values between 30°C and 100°C for a time t2 wherein t2 is higher than t1, and e) deactivating the plasma and cooling the sample obtained in step d). a) placing the substrate into a vacuum chamber previously set at a pressure lower than 10-4 mbar and under an atmosphere of argon and hydrogen; b) setting the substrate of step a) to a first substrate temperature T1, wherein T1 reaches values between 400°C and 700°C; c) activating the plasma and adding a carbon source into the vacuum chamber for a time t1, wherein t1 reaches different values of less than 60 min, obtaining a sample formed by the substrate and the deposited material precursor; d) setting the sample obtained in step c) to a second substrate temperature T2, wherein T2 is T1 minus T3 wherein T3 reaches values between 30°C and 100°C for a time t2 wherein t2 is higher than t1, and e) deactivating the plasma and cooling the sample obtained in step d).
Bicycle hand grip, in particular for enduro bicycles, comprising a substantially cylindrical sleeve for arranging the bicycle hand grip on a bicycle handlebar and a grip element surrounding the sleeve , the sleeve having a clamping portion adjoining an inner side of the grip element , said portion being surrounded by a clamping element , characterized in that the grip element has an outer surface which in the mounted state includes an angle of ≠ 90° with respect to a longitudinal axis of the bicycle hand grip, wherein, due to the inclined outer surface , an outer edge portion of the grip element is formed which in the mounted state of the bicycle hand grip protrudes laterally beyond the outer side of the bicycle handlebar , the grip element is enlarged in the edge portion, wherein the enlarged edge portion faces upward in the mounted state and a thickness of the grip element in a portion facing upward in the mounted state increases from approximately the middle of the grip element to the portion which is the outer edge portion in the mounted state.
A method for use by a wireless device , the method comprising: receiving at least one radio resource control, RRC, message comprising configuration parameters of a plurality of cells grouped into a plurality of cell groups; transmitting, via a first cell of the plurality of cells, a first sounding reference signal, SRS, overlapping in time with a transmission, via a second cell of the plurality of cells, of a first packet, wherein the first cell and the second cell are different cells of a same cell group of the plurality of cell groups; and dropping a configured transmission of a second SRS via the first cell if the configured transmission of the second SRS is configured to be transmitted in parallel with a first preamble via the second cell, wherein the wireless device has sufficient power to transmit the configured transmission of the second SRS in parallel with at least one packet. receiving at least one radio resource control, RRC, message comprising configuration parameters of a plurality of cells grouped into a plurality of cell groups; transmitting, via a first cell of the plurality of cells, a first sounding reference signal, SRS, overlapping in time with a transmission, via a second cell of the plurality of cells, of a first packet, wherein the first cell and the second cell are different cells of a same cell group of the plurality of cell groups; and dropping a configured transmission of a second SRS via the first cell if the configured transmission of the second SRS is configured to be transmitted in parallel with a first preamble via the second cell, wherein the wireless device has sufficient power to transmit the configured transmission of the second SRS in parallel with at least one packet.
A method for receiving media data of media content for a dynamic adaptive streaming over hypertext transfer protocol, DASH, comprising: receiving (S610) a media presentation description, MPD, file and a session-based description, SBD, file; determining (S620) whether the SBD file includes a starting time attribute indicating a starting time of an SBD timeline of a session; determining (S630) the starting time of the SBD timeline based on the SBD file in response to the SBD file including the starting time attribute; and determining (S640) the starting time of the SBD timeline based on the MPD file in response to the SBD file not including the starting time attribute, characterized in that determining (S630) the starting time of the SBD timeline based on the MPD file further comprises: determining the starting time of the SBD timeline based on a type of the MPD file and an element of the MPD file in which the SBD descriptor is included in response to the SBD file not including the starting time attribute, the SBD descriptor corresponding to the SBD file. receiving (S610) a media presentation description, MPD, file and a session-based description, SBD, file; determining (S620) whether the SBD file includes a starting time attribute indicating a starting time of an SBD timeline of a session; determining (S630) the starting time of the SBD timeline based on the SBD file in response to the SBD file including the starting time attribute; and determining (S640) the starting time of the SBD timeline based on the MPD file in response to the SBD file not including the starting time attribute, characterized in that determining (S630) the starting time of the SBD timeline based on the MPD file further comprises: determining the starting time of the SBD timeline based on a type of the MPD file and an element of the MPD file in which the SBD descriptor is included in response to the SBD file not including the starting time attribute, the SBD descriptor corresponding to the SBD file.
A bus bar assembly electrically connectable to two or more cell module assemblies such that the cell module assemblies are arranged in a lateral direction in a state in which the cell module assemblies are in tight contact with each other or adjacent to each other to constitute a battery module assembly, the bus bar assembly comprising: (a) a cover plate made of an electrically insulative material, the cover plate being mounted at upper ends of the cell module assemblies ; (b) two or more conductive connection parts electrically connected to external input and output terminals of the cell module assemblies in a state in which the conductive connection parts are mounted on the cover plate ; and (c) two or more bus bars mounted at an upper end of the cover plate in a direction perpendicular to a direction in which the cell module assemblies are arranged to electrically connect the conductive connection parts of the cell module assemblies to each other, wherein the cover plate is provided at a front and a rear thereof with through holes , through which a supporting bar to support the cell module assemblies is inserted, such that the through holes protrude upward, and characterized in that the cover plate is provided at one end of a front thereof with a connection part electrically connected to a neighboring battery module assembly such that the connection part extends downward. (a) a cover plate made of an electrically insulative material, the cover plate being mounted at upper ends of the cell module assemblies ; (b) two or more conductive connection parts electrically connected to external input and output terminals of the cell module assemblies in a state in which the conductive connection parts are mounted on the cover plate ; and (c) two or more bus bars mounted at an upper end of the cover plate in a direction perpendicular to a direction in which the cell module assemblies are arranged to electrically connect the conductive connection parts of the cell module assemblies to each other,
An upper for an article of footwear , the upper comprising: a braided structure comprising an inner surface proximate an interior cavity of the article of footwear , an outer surface proximate an exterior surface of the article of footwear , a first yarn having a first cross-sectional shape , and a second yarn having a second cross-sectional shape, different than the first cross-sectional shape, wherein the first cross-sectional shape comprises a rectangular orientation having a first side parallel to a second side , the first side of the first yarn defining the outer surface of the braided structure and the second side of the first yarn defining the inner surface of the braided structure , characterized in that the first yarn is a flat yarn having the first cross-sectional shape comprising a width and a thickness , wherein the width is larger than the thickness , and wherein the width of the first cross-sectional shape defines the first side and the second side .
A computer implemented method , comprising: determining that a binary software component was compiled with stack cookie functionality enabled based on metadata included with the binary software component; identifying a function defined in the binary software component, the function including one or more instructions; performing a binary static analysis of the function to determine whether the function utilizes stack cookie protection based on the one or more instructions including one or more stack cookie handling instructions; in response to determining that the function utilizes stack cookie protection, updating a security report for the binary software component to indicate that the function utilizes stack cookie protection; wherein the one or more stack cookie handling instructions are configured, when executed by a processor, to insert a particular data sequence into an execution stack maintained by the processor when the function is called to mark a boundary of stack data associated with the function; and wherein the one or more stack cookie handling instructions include an instruction to generate the particular data sequence when the function is called. determining that a binary software component was compiled with stack cookie functionality enabled based on metadata included with the binary software component; identifying a function defined in the binary software component, the function including one or more instructions; performing a binary static analysis of the function to determine whether the function utilizes stack cookie protection based on the one or more instructions including one or more stack cookie handling instructions; in response to determining that the function utilizes stack cookie protection, updating a security report for the binary software component to indicate that the function utilizes stack cookie protection; wherein the one or more stack cookie handling instructions are configured, when executed by a processor, to insert a particular data sequence into an execution stack maintained by the processor when the function is called to mark a boundary of stack data associated with the function; and wherein the one or more stack cookie handling instructions include an instruction to generate the particular data sequence when the function is called.
A method of determining an indication of the presence or absence of a substance in a sample comprising: receiving data generated from said sample, the received data comprising a plurality of data points, each data point having an associated value indicative of a mass or mass to charge ratio; obtaining theoretical data points associated with said substance, wherein each theoretical data point specifies a probabilistic value for an associated mass or mass to charge ratio; for each of said plurality of data points, determining a probabilistic score, said probabilistic score being determined based upon a number of probabilistic values of theoretical data points having an associated value indicative of a mass or mass to charge ratio within a range of values, said range being defined relative to said associated value of the data point; processing said theoretical data points and said plurality of data points to determine correspondence between said theoretical data points and said plurality of data points; determining a strength of said correspondence, said strength of said correspondence being based upon said probabilistic scores; and determining the presence or absence of said substance based upon said strength of said correspondence. receiving data generated from said sample, the received data comprising a plurality of data points, each data point having an associated value indicative of a mass or mass to charge ratio; obtaining theoretical data points associated with said substance, wherein each theoretical data point specifies a probabilistic value for an associated mass or mass to charge ratio; for each of said plurality of data points, determining a probabilistic score, said probabilistic score being determined based upon a number of probabilistic values of theoretical data points having an associated value indicative of a mass or mass to charge ratio within a range of values, said range being defined relative to said associated value of the data point; processing said theoretical data points and said plurality of data points to determine correspondence between said theoretical data points and said plurality of data points; determining a strength of said correspondence, said strength of said correspondence being based upon said probabilistic scores; and determining the presence or absence of said substance based upon said strength of said correspondence.
A method of trapping a biological substance comprising the step of contacting the biological substance with an affinity support comprising a support, a plurality of spacers each directly bound at a binding position to the support via a covalent bond, and a plurality of affinity substances, each bound directly to one of the spacers via a covalent bond, characterized in that the length of each spacer is 1 to 100 nm and the interval between the binding position of any spacer on the support and the binding position of the nearest other spacer is 1 to 1000 angstrom (Å), so as to bind the biological substance to at least two affinity substances, wherein the biological substance has a plurality of affinity sites and the at least two affinity substances bind to at least two of the affinity sites simultaneously such that the biological substance is trapped by the affinity substances via cooperative binding.