mhurhangee/patent-ind-claim-en huggingface dataset:
Structure for packaging containers for pharmaceutical use comprising: - a support plane fitted with a plurality of seats for housing containers for pharmaceutical use , the seats having main extension axes (X-X), parallel to each other, - the seats being delimited by perimeter walls which project from the support plane towards a top side of the structure , wherein - on the side of a top face of the seats , intended to receive in abutment an undercut element of said containers , a raised perimeter of each seat is provided to delimit and surround at least partially an annular pocket , enlarged with respect to the seat and intended to receive in abutment the undercut element of said containers for pharmaceutical use , wherein the perimeter walls of neighboring seats are spaced from each other by means of a lattice structure comprising a plurality of spacers characterized in that said spacers comprise at least one notch or interruption extending from the side of the top face towards a bottom face of the support plane , opposite the top face , the notch or interruption being blind or not passing through the side of the bottom face , wherein the perimeter walls of neighboring seats are tangent to each other at said notches or interruptions . - a support plane fitted with a plurality of seats for housing containers for pharmaceutical use , the seats having main extension axes (X-X), parallel to each other, - the seats being delimited by perimeter walls which project from the support plane towards a top side of the structure , wherein - on the side of a top face of the seats , intended to receive in abutment an undercut element of said containers , a raised perimeter of each seat is provided to delimit and surround at least partially an annular pocket , enlarged with respect to the seat and intended to receive in abutment the undercut element of said containers for pharmaceutical use , wherein the perimeter walls of neighboring seats are spaced from each other by means of a lattice structure comprising a plurality of spacers characterized in that said spacers comprise at least one notch or interruption extending from the side of the top face towards a bottom face of the support plane , opposite the top face , the notch or interruption being blind or not passing through the side of the bottom face , wherein the perimeter walls of neighboring seats are tangent to each other at said notches or interruptions .
A device comprising: a catheter having a proximal end , a distal end , and a lumen extending from the proximal end to the distal end; a sheath disposed about the distal end of the catheter and having a distal tip that extends distally beyond the distal end of the catheter to form a chamber within the sheath distally of the distal end of the catheter; an absorbent material disposed within the chamber of the sheath; a handle coupled to the sheath and including a release mechanism configured and positioned to release the absorbent material from the chamber; and a vacuum passage disposed for application of a proximal suction force through the catheter lumen, wherein the lumen of the catheter forms the vacuum passage and provides a fluid pathway between a distal end of the sheath and a vacuum source that is included in or can be coupled to the handle. a catheter having a proximal end , a distal end , and a lumen extending from the proximal end to the distal end; a sheath disposed about the distal end of the catheter and having a distal tip that extends distally beyond the distal end of the catheter to form a chamber within the sheath distally of the distal end of the catheter; an absorbent material disposed within the chamber of the sheath; a handle coupled to the sheath and including a release mechanism configured and positioned to release the absorbent material from the chamber; and a vacuum passage disposed for application of a proximal suction force through the catheter lumen, wherein the lumen of the catheter forms the vacuum passage and provides a fluid pathway between a distal end of the sheath and a vacuum source that is included in or can be coupled to the handle.
A microfluidic device comprising: a first micro fluidic channel ; a second microfluidic channel extending along the first micro fluidic channel ; and a first array of islands separating the first microfluidic channel from the second microfluidic channel , wherein each island is separated from an adjacent island in the array by an opening that fluidly couples the first microfluidic channel to the second microfluidic channel , wherein a cross-sectional area of the second microfluidic channel progressively increases along a longitudinal direction of the first microfluidic channel , wherein the first microfluidic channel , the second microfluidic channel , and the islands comprise a repeating array of parallel focusing units and siphoning units , in which a width of each siphoning unit increases along the longitudinal direction of the first microfluidic channel , in which each focusing unit includes the area adjacent to an island in the array where the walls of the first microfluidic channel have a relatively high curvature, and in which each siphoning unit includes the area adjacent to the same island in the array , but opposite to that of the focusing unit , that has relatively less curvature, and which provides a wider pathway for fluid to travel, resulting in a lower hydraulic resistance, and wherein a width of the first microfluidic channel repeatedly alternates between a narrow region and an enlarged region along the longitudinal direction of the first microfluidic channel . a first micro fluidic channel ; a second microfluidic channel extending along the first micro fluidic channel ; and a first array of islands separating the first microfluidic channel from the second microfluidic channel , wherein each island is separated from an adjacent island in the array by an opening that fluidly couples the first microfluidic channel to the second microfluidic channel , wherein a cross-sectional area of the second microfluidic channel progressively increases along a longitudinal direction of the first microfluidic channel , wherein the first microfluidic channel , the second microfluidic channel , and the islands comprise a repeating array of parallel focusing units and siphoning units , in which a width of each siphoning unit increases along the longitudinal direction of the first microfluidic channel , in which each focusing unit includes the area adjacent to an island in the array where the walls of the first microfluidic channel have a relatively high curvature, and in which each siphoning unit includes the area adjacent to the same island in the array , but opposite to that of the focusing unit , that has relatively less curvature, and which provides a wider pathway for fluid to travel, resulting in a lower hydraulic resistance, and wherein a width of the first microfluidic channel repeatedly alternates between a narrow region and an enlarged region along the longitudinal direction of the first microfluidic channel .
A method for sorting data in parallel on a data-parallel computing device comprising: loading, by a group of parallel processors, data elements into register rows of registers (631-638), wherein each register is associated with at least one parallel processor in the group of parallel processors; for each of the parallel processors, sorting, in parallel, the data elements loaded in its associated registers in descending order, partitioning and writing selected register rows into a shared memory based on a maximum number of data elements each processor can write to the shared memory and a total number of registers per processor; for each of the parallel processors, merging the sorted data elements with the sorted data elements of other processors in the group; wherein loading the data elements into each processor's respective registers includes loading, based on a merge level by a processor or processors in the group of processors, a subset of the shared selected register rows of data elements in a transposed form to be then merged sequentially using an optimal merging network that upon completion will be in sorted order, and thereby replacing the subset of the shared selected register rows; and storing, by the parallel processors, the merged and sorted data elements. loading, by a group of parallel processors, data elements into register rows of registers (631-638), wherein each register is associated with at least one parallel processor in the group of parallel processors; for each of the parallel processors, sorting, in parallel, the data elements loaded in its associated registers in descending order, partitioning and writing selected register rows into a shared memory based on a maximum number of data elements each processor can write to the shared memory and a total number of registers per processor; for each of the parallel processors, merging the sorted data elements with the sorted data elements of other processors in the group; wherein loading the data elements into each processor's respective registers includes loading, based on a merge level by a processor or processors in the group of processors, a subset of the shared selected register rows of data elements in a transposed form to be then merged sequentially using an optimal merging network that upon completion will be in sorted order, and thereby replacing the subset of the shared selected register rows; and storing, by the parallel processors, the merged and sorted data elements.
A method for a communication network comprising: receiving at a trusted wireless local area network access gateway, TWAG, an attach trigger for a dual stack capable 3rd Generation Partnership Project, 3GPP, Release 11 user equipment, UE, within a trusted access network following an EAP dialogue for the UE via a 3GPP AAA element , the attach trigger being a DHCPv4 discover or IPv6 ND; on receipt of the attach trigger, configuring a first signaling path for the UE between the TWAG and a first Packet Data Network Gateway, PGW , for a first Internet protocol, IP, connection using a first IP version type, the first IP version type being one of IPv4 or IPv6; and on receipt of the attach trigger, configuring a second signaling path for the UE between the TWAG and a second PGW for a second IP connection using a second IP version type, wherein the first and second IP connections are concurrent and the second version type is the other one of IPv4 or IPv6. receiving at a trusted wireless local area network access gateway, TWAG, an attach trigger for a dual stack capable 3rd Generation Partnership Project, 3GPP, Release 11 user equipment, UE, within a trusted access network following an EAP dialogue for the UE via a 3GPP AAA element , the attach trigger being a DHCPv4 discover or IPv6 ND; on receipt of the attach trigger, configuring a first signaling path for the UE between the TWAG and a first Packet Data Network Gateway, PGW , for a first Internet protocol, IP, connection using a first IP version type, the first IP version type being one of IPv4 or IPv6; and on receipt of the attach trigger, configuring a second signaling path for the UE between the TWAG and a second PGW for a second IP connection using a second IP version type, wherein the first and second IP connections are concurrent and the second version type is the other one of IPv4 or IPv6.
Assembly comprising: - an electrical machine which isopen at a longitudinal end and comprises: - a stator having windings which form coils , - a rotor , - a shaft rotating the rotor , - an impeller for cooling the electrical machine, said cooling impeller comprising at least two crowns , including a first crown and a second crown , each crown comprising blades , wherein the blades of the first crown of the cooling impeller are arranged so as to generate a circulation of a cooling fluid flow in a first direction (F1) in which the flow travels parallel to a rotation axis (R) of the rotor and away from the impeller , and the blades of the second crown are arranged so as to generate the circulation of the cooling fluid flow in a second direction (F2), the second direction (F2) being opposite the first direction (F1),with a flow outside the electrical machine entering via the cooling impeller and a flow inside the electrical machine exiting via the impeller . - an electrical machine which isopen at a longitudinal end and comprises: - a stator having windings which form coils , - a rotor , - a shaft rotating the rotor , - an impeller for cooling the electrical machine, said cooling impeller comprising at least two crowns , including a first crown and a second crown , each crown comprising blades , - a stator having windings which form coils , - a rotor , - a shaft rotating the rotor , - an impeller for cooling the electrical machine, said cooling impeller comprising at least two crowns , including a first crown and a second crown , each crown comprising blades ,
A power generating apparatus (100-109) comprising: a power generating portion that generates power in response to a load being applied thereto; a lever mechanism , including a force point , a support point , and an action point disposed so as to face the power generating portion , that pivots around the support point upon the force point being pressed in a direction that brings the action point toward the power generating portion; a first magnetic body , provided on the lever mechanism , that pivots integrally with the lever mechanism around the support point ; and a second magnetic body having magnetic characteristics of being attracted to the first magnetic body , wherein upon the force point being pressed, the action point applies the load to the power generating portion according to the principle of leverage, and the first magnetic body approaches the second magnetic body while being attracted to the second magnetic body . a power generating portion that generates power in response to a load being applied thereto; a lever mechanism , including a force point , a support point , and an action point disposed so as to face the power generating portion , that pivots around the support point upon the force point being pressed in a direction that brings the action point toward the power generating portion; a first magnetic body , provided on the lever mechanism , that pivots integrally with the lever mechanism around the support point ; and a second magnetic body having magnetic characteristics of being attracted to the first magnetic body , wherein upon the force point being pressed, the action point applies the load to the power generating portion according to the principle of leverage, and the first magnetic body approaches the second magnetic body while being attracted to the second magnetic body .
A compound characterized by Formula I: wherein the compound of Formula I is selected from Structures G-P: and
A method for fault positioning of a voltage source converter, characterized in that : locking the voltage source converter of a voltage source converter station when it is detected that an alternating-current side zero sequence voltage Uo_ac or a direct-current side unbalanced voltage U o_dc of the voltage source converter station stays greater than a set first threshold Uo_set1 for longer than a set period of time Δt1; and determining the voltage source converter station as a faulty station if it is detected that the alternating-current side zero sequence voltage Uo_ac of the voltage source converter station stays greater than a set second threshold U o_set2 for longer than a set period of time Δt2 in the locking period; otherwise, determining the voltage source converter station as a non-faulty station.
A method for controlling the timing of feedback transmissions by a communication device communicating over a communication link , wherein the communication link supports a retransmission scheme and wherein the method comprises: - transmitting , in at least one of a slot and a subframe, a feedback timing indicator, FTI, and data, wherein the FTI is selected from a set of indicators and wherein the FTI indicates that retransmission feedback is requested within the same at least one of a slot and a subframe as the data is transmitted and wherein the format of the data is based on the FTI; and - receiving, in the same at least one of a slot and a subframe, retransmission feedback related to the transmitted data. - transmitting , in at least one of a slot and a subframe, a feedback timing indicator, FTI, and data, wherein the FTI is selected from a set of indicators and wherein the FTI indicates that retransmission feedback is requested within the same at least one of a slot and a subframe as the data is transmitted and wherein the format of the data is based on the FTI; and - receiving, in the same at least one of a slot and a subframe, retransmission feedback related to the transmitted data.
Cosmetic or dermatological composition comprising, in a physiologically acceptable medium: a) at least one merocyanine corresponding to the following formula and also the E/E- or E/Z- geometrical isomer forms thereof: in which: A is -O-; R is a C 1 -C 22 alkyl group, a C 2 -C 22 alkenyl group, a C 2 -C 22 alkynyl group, a C 3 -C 22 cycloalkyl group or a C 3 -C 22 cycloalkenyl group, it being possible for the said groups to be interrupted with one or more O. and b) at least one oily phase comprising at least one isosorbide ether. a) at least one merocyanine corresponding to the following formula and also the E/E- or E/Z- geometrical isomer forms thereof: in which: A is -O-; R is a C 1 -C 22 alkyl group, a C 2 -C 22 alkenyl group, a C 2 -C 22 alkynyl group, a C 3 -C 22 cycloalkyl group or a C 3 -C 22 cycloalkenyl group, it being possible for the said groups to be interrupted with one or more O. and A is -O-; R is a C 1 -C 22 alkyl group, a C 2 -C 22 alkenyl group, a C 2 -C 22 alkynyl group, a C 3 -C 22 cycloalkyl group or a C 3 -C 22 cycloalkenyl group, it being possible for the said groups to be interrupted with one or more O. and b) at least one oily phase comprising at least one isosorbide ether.
A surgical kit, comprising: a liquid sealant configured to cure into a solidified state; and a sealing cuff having a sidewall with first and second ends removably mated to one another to form an enclosed loop, the sidewall defining an interior chamber , and the sealing cuff being configured to be disposed around a body lumen such that the interior chamber is sealed between the outer wall and the body lumen to allow the liquid sealant to be received therein and to directly contact the body lumen; and a tube coupled to the sealing cuff and configured to deliver the sealant to the interior chamber of the sealing cuff , characterised in that the sealing cuff includes a plurality of protrusions formed on an inner surface of the sidewall, in the interior chamber and spaced apart from one another around its circumference, the plurality of protrusions being sized and shaped such that when the sealing cuff is disposed around a tubular body organ and sealant is delivered thereto, the sealant is distributed substantially uniformly within the interior chamber of the cuff and solidifies substantially circumferentially around the organ. a liquid sealant configured to cure into a solidified state; and a sealing cuff having a sidewall with first and second ends removably mated to one another to form an enclosed loop, the sidewall defining an interior chamber , and the sealing cuff being configured to be disposed around a body lumen such that the interior chamber is sealed between the outer wall and the body lumen to allow the liquid sealant to be received therein and to directly contact the body lumen; and a tube coupled to the sealing cuff and configured to deliver the sealant to the interior chamber of the sealing cuff , characterised in that the sealing cuff includes a plurality of protrusions formed on an inner surface of the sidewall, in the interior chamber and spaced apart from one another around its circumference, the plurality of protrusions being sized and shaped such that when the sealing cuff is disposed around a tubular body organ and sealant is delivered thereto, the sealant is distributed substantially uniformly within the interior chamber of the cuff and solidifies substantially circumferentially around the organ.
A helmet, comprising first and second components having a sliding interface between them, wherein the sliding interface is provided between respective sliding surfaces of the first and second components, and the first component comprises a polyketone.
An environmental barrier coating system for a component of a gas turbine, comprising: at least one rare earth disilicate layer ; and at least one rare earth monosilicate layer , wherein at least one of the at least one rare earth disilicate layer or the at least one rare earth monosilicate layer includes an alkaline earth oxide dopant, characterized in that the at least one rare earth monosilicate layer is doped and an amount of the alkaline earth oxide dopant is 1-25 mole % of the layer, and in that the amount of the dopant is limited such that the dopant either reduces the coefficient of thermal expansion or increases the coefficient of thermal expansion of the at least one rare earth monosilicate layer by less than 10%, and wherein the addition of the alkaline earth oxide dopant promotes the formation of an apatite phase and increases the chemical activity of the alkaline earth oxide to a level that reduces the driving force for chemical reaction with dust deposits. at least one rare earth disilicate layer ; and at least one rare earth monosilicate layer , wherein at least one of the at least one rare earth disilicate layer or the at least one rare earth monosilicate layer includes an alkaline earth oxide dopant, characterized in that the at least one rare earth monosilicate layer is doped and an amount of the alkaline earth oxide dopant is 1-25 mole % of the layer, and in that the amount of the dopant is limited such that the dopant either reduces the coefficient of thermal expansion or increases the coefficient of thermal expansion of the at least one rare earth monosilicate layer by less than 10%, and wherein the addition of the alkaline earth oxide dopant promotes the formation of an apatite phase and increases the chemical activity of the alkaline earth oxide to a level that reduces the driving force for chemical reaction with dust deposits.