mhurhangee/ep-ind-claims huggingface dataset:
A method for selecting transport formats corresponding to transport channels in a wideband code division multiple access mobile communication system which includes a radio link control layer entity and a medium access control layer entity, the radio link control layer entity converting a service data unit delivered from an upper layer into a protocol data unit and transmitting the protocol data unit to the medium access control layer entity through a predetermined logical channel from among a plurality of logical channels, the medium access control layer entity receiving the protocol data unit and converting the protocol data unit into a transport block and transferring the transport block to a physical layer entity through a predetermined transport channel from among a plurality of transport channels, the method comprising the steps of: i) sorting logical channels according to priorities, the logical channels existing between the radio link control layer entity and the medium access control layer entity; ii) sorting transport format indicators according to a number of transport blocks for each corresponding transport format; iii) selecting, according to a sequence of the sorted transport format indicators, transport formats supporting a number of transport blocks which is less than or equal to a number of data blocks to be transferred through a logical channel according to each priority; and iv) comparing sizes of the data blocks to be transferred with sizes of transport blocks of a selected transport format indicator and selecting a transport format indicator having sizes of a transport block equal to the sizes of the data blocks to be transferred. i) sorting logical channels according to priorities, the logical channels existing between the radio link control layer entity and the medium access control layer entity; ii) sorting transport format indicators according to a number of transport blocks for each corresponding transport format; iii) selecting, according to a sequence of the sorted transport format indicators, transport formats supporting a number of transport blocks which is less than or equal to a number of data blocks to be transferred through a logical channel according to each priority; and iv) comparing sizes of the data blocks to be transferred with sizes of transport blocks of a selected transport format indicator and selecting a transport format indicator having sizes of a transport block equal to the sizes of the data blocks to be transferred.
Electrical connection assembly for medium and high voltage switchgears, the switchgears having an electrical terminal, wherein an electrical contacting surface of the electrical terminal as first current carrying part is electrically connected with a contacting surface of an external electrical connector part as second current carrying part via a connecting system comprising a stretch bolt having a stretch-bolt function, characterized in that the stretch bolt is integrated with the first current carrying part, and that the stretch bolt having the stretch bolt function is provided with a male screw thread at the extending end, which has to be screwed into a female threaded hole of the second current carrying part, wherein the in the concerning first current carrying part integrated end of the stretch bolt is integrally bonded to the aforesaid first current carrying part at the bottom of a stud hole, and that the inner diameter of that stud hole is bigger than the outer diameter of the stretch bolt.
A pneumatic tire having at least one carcass layer as a skeleton extending in a toroidal shape over a pair of bead portions, at least one belt layer (3a; 3b; 4; 4a; 4b; 41; 4r) and a tread that are disposed on an outer side in a tire radial direction of a crown portion of the carcass layer, characterised in that in a section of the tire in a tire widthwise direction in a state where the tire is assembled to an application rim, a ratio BD/BW of radius difference BD between radius at a center portion and radius at an end portion in the tire widthwise direction of an innermost layer of the belt layer, to a width BW of the innermost layer, is in the range of 0.01 to 0.04, and a ratio TD/TW of radius difference TD between radius at a center portion and radius at an end portion of the tread in the tire widthwise direction of a tread ground surface, to a tread ground-contact width TW, satisfies the relation BD/BW < TD/TW.
A method for deterministic light transmission through a multimode waveguide comprising the steps of: providing the multimode waveguide (402, 503) comprising: a distal tip having a distal end facet and a proximal tip at an opposed end of the multimode waveguide; at least one multimode fiber (402, 503); calibrating the multimode waveguide (402,503), whereby the calibrating comprises: coupling in light at an input side at the distal tip of the multimode waveguide; analyzing with analyzing means (400,403; 506,507) light coupled in at the input side of the multimode waveguide, at an output side of the multimode waveguide, whereby the analyzing comprises: digitally analyzing a complex light field (400,403, 507, 506) in its phase and/or amplitude properties; wherein the step of calibrating is realized through transmission matrix measurement, the method for deterministic light transmission further comprising: conditioning an output at the distal tip of the multimode waveguide by controlling a spatial light modulator to choose an appropriate light field at the proximal tip of the multimode waveguide. providing the multimode waveguide (402, 503) comprising: a distal tip having a distal end facet and a proximal tip at an opposed end of the multimode waveguide; at least one multimode fiber (402, 503); a distal tip having a distal end facet and a proximal tip at an opposed end of the multimode waveguide; at least one multimode fiber (402, 503); calibrating the multimode waveguide (402,503), whereby the calibrating comprises: coupling in light at an input side at the distal tip of the multimode waveguide; analyzing with analyzing means (400,403; 506,507) light coupled in at the input side of the multimode waveguide, at an output side of the multimode waveguide, whereby the analyzing comprises: digitally analyzing a complex light field (400,403, 507, 506) in its phase and/or amplitude properties; wherein the step of calibrating is realized through transmission matrix measurement, coupling in light at an input side at the distal tip of the multimode waveguide; analyzing with analyzing means (400,403; 506,507) light coupled in at the input side of the multimode waveguide, at an output side of the multimode waveguide, whereby the analyzing comprises: digitally analyzing a complex light field (400,403, 507, 506) in its phase and/or amplitude properties; wherein the step of calibrating is realized through transmission matrix measurement, the method for deterministic light transmission further comprising: conditioning an output at the distal tip of the multimode waveguide by controlling a spatial light modulator to choose an appropriate light field at the proximal tip of the multimode waveguide.
A polyphenylene ether resin composition comprising: (a) a resin component; (b) titanium oxide; and (c) an inorganic filler, wherein the (c) inorganic filler has a thermal conductivity of 2 to 12 [W/(m.K)], the (a) resin component comprises 50 to 90 parts by mass of a polyphenylene ether in 100 parts by mass of the (a) resin component, an amount of the (b) titanium oxide is 5 to 40 parts by mass relative to 100 parts by mass of the (a) resin component, an amount of the (c) inorganic filler is 5 to 50 parts by mass relative to 100 parts by mass of the (a) resin component, and a mass ratio of the (b) titanium oxide to the (c) inorganic filler ((b) / (c)) is 0.2 to 8.0. (a) a resin component; (b) titanium oxide; and (c) an inorganic filler, wherein the (c) inorganic filler has a thermal conductivity of 2 to 12 [W/(m.K)], the (a) resin component comprises 50 to 90 parts by mass of a polyphenylene ether in 100 parts by mass of the (a) resin component, an amount of the (b) titanium oxide is 5 to 40 parts by mass relative to 100 parts by mass of the (a) resin component, an amount of the (c) inorganic filler is 5 to 50 parts by mass relative to 100 parts by mass of the (a) resin component, and a mass ratio of the (b) titanium oxide to the (c) inorganic filler ((b) / (c)) is 0.2 to 8.0.
An apparatus for applying negative pressure to a wound, the apparatus comprising: a wound dressing configured to be placed over a wound of a patient; a negative pressure source disposed on or within the wound dressing, the negative pressure source configured to provide negative pressure to the wound dressing via a fluid flow path; a switch disposed on or within the wound dressing, the switch being configured to receive a first user input; an interface element disposed on or within the wound dressing, the interface element being configured to receive a second user input; and control circuitry electrically coupled to the switch and the interface element, the control circuitry being configured to: when in a first mode, supply of negative pressure with the negative pressure source in response to receipt of the first user input while the negative pressure source is not supplying negative pressure, prevent supply of negative pressure with the negative pressure source in response to receipt of the first user input while the negative pressure source is supplying negative pressure, and change from the first mode to a second mode different from the first mode in response to receipt of the second user input, when in the second mode, disable supply of negative pressure with the negative pressure source. a wound dressing configured to be placed over a wound of a patient; a negative pressure source disposed on or within the wound dressing, the negative pressure source configured to provide negative pressure to the wound dressing via a fluid flow path; a switch disposed on or within the wound dressing, the switch being configured to receive a first user input; an interface element disposed on or within the wound dressing, the interface element being configured to receive a second user input; and control circuitry electrically coupled to the switch and the interface element, the control circuitry being configured to: when in a first mode, supply of negative pressure with the negative pressure source in response to receipt of the first user input while the negative pressure source is not supplying negative pressure, prevent supply of negative pressure with the negative pressure source in response to receipt of the first user input while the negative pressure source is supplying negative pressure, and change from the first mode to a second mode different from the first mode in response to receipt of the second user input, when in the second mode, disable supply of negative pressure with the negative pressure source. when in a first mode, supply of negative pressure with the negative pressure source in response to receipt of the first user input while the negative pressure source is not supplying negative pressure, prevent supply of negative pressure with the negative pressure source in response to receipt of the first user input while the negative pressure source is supplying negative pressure, and change from the first mode to a second mode different from the first mode in response to receipt of the second user input, when in the second mode, disable supply of negative pressure with the negative pressure source.
A method for determining privacy loss due to execution of a query by a client to a differentially private database storing restricted data, the method comprising: receiving a database query from the client, the database query including a relation specifying a set of data in the database upon which to perform the query and privacy parameters associated with the query, said privacy parameters indicating an amount of restricted data to release from the database to the client in response to the query; determining a worst-case privacy spend for the query based on the privacy parameters and the relation, the worst-case privacy spend being the highest privacy loss possible for the query; performing the query upon the set of data specified by the relation; decrementing the determined worst-case privacy spend from a privacy budget associated with the client, wherein said privacy budget specifies a limit on the restricted data to be released; recording the worst-case privacy spend and the query at a log; determining a privacy budget refund, comprising analyzing relationships among the queries recorded in the log and determining a cumulative privacy loss for the queries based on said analysis; and applying the determined privacy budget refund to the privacy budget associated with the client. receiving a database query from the client, the database query including a relation specifying a set of data in the database upon which to perform the query and privacy parameters associated with the query, said privacy parameters indicating an amount of restricted data to release from the database to the client in response to the query; determining a worst-case privacy spend for the query based on the privacy parameters and the relation, the worst-case privacy spend being the highest privacy loss possible for the query; performing the query upon the set of data specified by the relation; decrementing the determined worst-case privacy spend from a privacy budget associated with the client, wherein said privacy budget specifies a limit on the restricted data to be released; recording the worst-case privacy spend and the query at a log; determining a privacy budget refund, comprising analyzing relationships among the queries recorded in the log and determining a cumulative privacy loss for the queries based on said analysis; and applying the determined privacy budget refund to the privacy budget associated with the client.
A composition comprising a population of human hepatocytes, a population of 3T3-J2 murine embryonic fibroblasts, and a population of human endothelial cells selected from primary liver sinusoidal endothelial cells (LSECs) and human umbilical vein endothelial cells (HUVECs) in co-culture in vitro, wherein the hepatocytes are disposed in a micropattern on a culture substrate, wherein the micropattern comprises a predetermined two-dimensional pattern of multiple microdots, the micropattern defined by a microdot diameter and an edge-to-edge spacing between each of any two neighboring microdots.
Diesel composition comprising at least one diesel fuel and from 0.01 to 0.8% by volume, based on the total volume of the diesel composition, of at least one compound of formula I below: wherein R 1 and R 2, independently from one another, are selected in the group consisting of: a linear or branched C1-C12 alkyl, a C4-C12 cycloalkyl or an aryl, R 3 is H. R 1 and R 2, independently from one another, are selected in the group consisting of: a linear or branched C1-C12 alkyl, a C4-C12 cycloalkyl or an aryl, R 3 is H.
An implantable prosthetic valve that is radially collapsible to a collapsed configuration and radially expandable to an expanded configuration, the prosthetic valve comprising: an annular frame having an inflow end and an outflow end; a leaflet structure positioned within the frame and secured thereto; and a laminate sealing member comprising an encapsulating material, the laminate sealing member having a main portion that encapsulates at least a portion of the frame and an end portion extending from the inflow end of the frame; wherein the laminate sealing member comprises a first tubular layer positioned on the inside of the frame and a second tubular layer positioned on the outside of the frame, the first and second tubular layers (84, 86) being fused together to encapsulate corresponding portions of the frame; characterized in that the first layer terminates near the inflow end of the frame, and the second layer extends beyond the inflow end of the frame to form the end portion of the laminate sealing member; the end portion of the laminate sealing member is folded to form a cuff adjacent the inflow end of the frame and secured to the main portion of the laminate sealing member. an annular frame having an inflow end and an outflow end; a leaflet structure positioned within the frame and secured thereto; and a laminate sealing member comprising an encapsulating material, the laminate sealing member having a main portion that encapsulates at least a portion of the frame and an end portion extending from the inflow end of the frame; wherein the laminate sealing member comprises a first tubular layer positioned on the inside of the frame and a second tubular layer positioned on the outside of the frame, the first and second tubular layers (84, 86) being fused together to encapsulate corresponding portions of the frame; characterized in that the first layer terminates near the inflow end of the frame, and the second layer extends beyond the inflow end of the frame to form the end portion of the laminate sealing member; the end portion of the laminate sealing member is folded to form a cuff adjacent the inflow end of the frame and secured to the main portion of the laminate sealing member.
A method of fabricating a body protection apparatus for absorbing the energy of an impact, characterised by the steps of: constructing an internal planar structure (102, 801) from a plurality of open cells configured to deform under load, by: extruding a plurality of tubes, each with an internal circumference of a first material and an outer circumference of a second material, in which the second material has a lower melting point than the inner material, the outer diameter of said tubes being between 2mm and 9mm, cutting said extruded tubes into short tubes, each having a length of between 10mm and 25mm, arranging said short tubes in close packed arrays, and heating said tubes to weld them together; and arranging an outer layer of a flexible sheet material (105, 301) to overlie a surface of said internal planar structure; wherein the outer layer of flexible material is held in place relative to the internal planar structure such that the outer layer of flexible material increases the area of energy absorption under impact. extruding a plurality of tubes, each with an internal circumference of a first material and an outer circumference of a second material, in which the second material has a lower melting point than the inner material, the outer diameter of said tubes being between 2mm and 9mm, cutting said extruded tubes into short tubes, each having a length of between 10mm and 25mm, arranging said short tubes in close packed arrays, and heating said tubes to weld them together; and arranging an outer layer of a flexible sheet material (105, 301) to overlie a surface of said internal planar structure; wherein the outer layer of flexible material is held in place relative to the internal planar structure such that the outer layer of flexible material increases the area of energy absorption under impact.
A method of producing a protein-immobilized support comprising immobilizing a protein having a tag sequence on a support, the tag sequence including a sequence that includes three or more consecutive basic amino acids that are lysine, arginine, or histidine, wherein the support has at least one functional group selected from a carboxyl group, an epoxy group, and a tosyl group; and wherein the amino group(s) and/or the imino group(s) included in the basic amino acids of the tag sequence react with the functional group of the support.
A cross-piece arrangement for coupling a trailer to a towing vehicle, the cross-piece being mounted on the chassis of the vehicle by means of two identical brackets serving at the same time for assembling a transverse underride guard bar on the chassis of the vehicle, each of the two brackets being a monolithic element obtained by cutting in a metal sheet and having a planar main part comprising a fastening zone for fastening the bracket on the chassis of the vehicle and a zone for fastening the cross-piece on the bracket, characterized in that that second zone comprises two wings (24, 25) for fastening the cross-piece and the underride guard bar on the bracket, the wings (24, 25) being spaced apart from each other and extending transversely relative to the main part, the two wings (24, 25) of each of the brackets being bent in opposite directions.
A transmit end device (400, 600, 810), wherein the transmit end device (400, 600, 810) comprises: a generation module, configured to generate precoding configuration information, wherein the precoding configuration information is used to configure a width of a frequency band for same precoding; and a sending module, configured to send the precoding configuration information, characterized in that the precoding configuration information comprises a width update parameter, wherein the width update parameter is used to update a current width of the frequency band for same precoding, wherein update content is expressed in a form of a calculation formula as defined in the following table, wherein the width update parameter is represented as CASE, a current width of the frequency band for same precoding is represented as P, an updated width of the frequency band is represented as P*, and a frequency bandwidth of a system bandwidth is expressed in a quantity N RB DL of physical resource blocks, PRBs, the updated width that is corresponding to the system bandwidth and that is of the frequency band for same precoding is determined based on a value of the width update parameter CASE: P* (PRBs) System bandwidth N RB DL CASE = 0 CASE = 1 ≤10 P* =P + 1 P* = P - 1 11-26 P* = P + 2 P* = P 27-63 P* = P × 2 P* = P/2 64-110 P* = P P* = P a generation module, configured to generate precoding configuration information, wherein the precoding configuration information is used to configure a width of a frequency band for same precoding; and a sending module, configured to send the precoding configuration information, characterized in that the precoding configuration information comprises a width update parameter, wherein the width update parameter is used to update a current width of the frequency band for same precoding, wherein update content is expressed in a form of a calculation formula as defined in the following table, wherein the width update parameter is represented as CASE, a current width of the frequency band for same precoding is represented as P, an updated width of the frequency band is represented as P*, and a frequency bandwidth of a system bandwidth is expressed in a quantity N RB DL of physical resource blocks, PRBs, the updated width that is corresponding to the system bandwidth and that is of the frequency band for same precoding is determined based on a value of the width update parameter CASE: P* (PRBs) System bandwidth N RB DL CASE = 0 CASE = 1 ≤10 P* =P + 1 P* = P - 1 11-26 P* = P + 2 P* = P 27-63 P* = P × 2 P* = P/2 64-110 P* = P P* = P