mhurhangee/ep-ind-claims huggingface dataset:
Skylight assembly comprising a skylight dome, said dome formed of light transmitting material; at least an internal surface of said dome provided with prismatic structures arranged so as to direct incident light from without said dome to points below a lower periphery of said dome; said prismatic structures formed as adjoining facets (26,28) of a plurality of curved ridges; each of said curved ridges extending from a first upper end to a second lower end; wherein the skylight assembly further comprises a reflective cylindrical light tube extending from below said lower periphery of said dome, characterised in that each of said curved ridges extending between a first meridian of said dome at said first upper end and a second meridian of said dome at said second lower end.
A motor vehicle having an interior in which devices for holding drink containers and for storing articles are provided on or in fitting components, wherein the respective device has a storage compartment which can be closed by at least one outer, upper cover, wherein provided above a storage compartment of the device is a functional cover which has at least one passage opening (17, 18), wherein the functional cover can be moved out of a use position in which the functional cover is used to hold a container, into a non-use position in which the storage compartment is freely accessible, and wherein provided above the functional cover is the outer, upper cover which can be moved out of a closed position into an open position and back again, characterised in that the outer, upper cover and the functional cover located thereunder are arranged on a housing of the device (1 a) by means of swivel elements (7, 15), and in that formed on opposite side walls (5, 6) of the housing is a rotational or swivel axis which extends in the transverse direction y of the storage compartment and on which swivel arms of the outer, cover and swivel arms of the functional cover are rotatably arranged.
A method of assembling an aircraft assembly including a first member and a second member, the method comprising: drilling a first opening through the first member, the first opening having a first diameter; drilling a second opening through the second member, the second opening having the first diameter; forming a first chamfer on the first opening and forming a first chamfer on the second opening, the first chamfer on the first opening and the first chamfer on the second opening having a chamfer diameter; positioning the first member and the second member to align the first opening and the second opening along a common centerline; and drilling the first opening and the second opening to a second diameter, wherein the second diameter is greater than the first diameter; wherein positioning the first member and the second member comprises positioning the first member and the second member using a plurality of determinate assembly features integrally formed on the first member and the second member; and wherein positioning the first member and the second member comprises positioning the first member and the second member relative to each other within a predetermined tolerance limit. drilling a first opening through the first member, the first opening having a first diameter; drilling a second opening through the second member, the second opening having the first diameter; forming a first chamfer on the first opening and forming a first chamfer on the second opening, the first chamfer on the first opening and the first chamfer on the second opening having a chamfer diameter; positioning the first member and the second member to align the first opening and the second opening along a common centerline; and drilling the first opening and the second opening to a second diameter, wherein the second diameter is greater than the first diameter; wherein positioning the first member and the second member comprises positioning the first member and the second member using a plurality of determinate assembly features integrally formed on the first member and the second member; and wherein positioning the first member and the second member comprises positioning the first member and the second member relative to each other within a predetermined tolerance limit.
A computer system for facilitating secure communication between computing entities in a content centric network, the system comprising: a processor; and a storage device storing instructions that when executed by the processor cause the processor to perform a method, the method comprising: generating, by a content-consuming device, a first key based on a first consumer-share key and a previously received producer-share key; constructing a first interest packet that includes the first consumer share key and a nonce token which is used as a pre-image of a previously generated first nonce, wherein the first interest packet has a name that includes a first prefix, and wherein the first nonce is used to establish a session between the content-consuming device and a content-producing device; in response to the nonce token being verified by the content-producing device, receiving a first content-object packet with a payload that includes a first resumption indicator encrypted based on a second key; and generating the second key based on a second consumer-share key and the first content-object packet. a processor; and a storage device storing instructions that when executed by the processor cause the processor to perform a method, the method comprising: generating, by a content-consuming device, a first key based on a first consumer-share key and a previously received producer-share key; constructing a first interest packet that includes the first consumer share key and a nonce token which is used as a pre-image of a previously generated first nonce, wherein the first interest packet has a name that includes a first prefix, and wherein the first nonce is used to establish a session between the content-consuming device and a content-producing device; in response to the nonce token being verified by the content-producing device, receiving a first content-object packet with a payload that includes a first resumption indicator encrypted based on a second key; and generating the second key based on a second consumer-share key and the first content-object packet. generating, by a content-consuming device, a first key based on a first consumer-share key and a previously received producer-share key; constructing a first interest packet that includes the first consumer share key and a nonce token which is used as a pre-image of a previously generated first nonce, wherein the first interest packet has a name that includes a first prefix, and wherein the first nonce is used to establish a session between the content-consuming device and a content-producing device; in response to the nonce token being verified by the content-producing device, receiving a first content-object packet with a payload that includes a first resumption indicator encrypted based on a second key; and generating the second key based on a second consumer-share key and the first content-object packet.
A method for compensating for in-phase and quadrature, I/Q, imbalances in a multiple antenna system, MAS, with multi-user, MU, transmissions, MU-MAS, comprising: obtaining channel characterization data at a base station, based on channel estimate data or training signals received from wireless client devices, and building a stacked matrix from the channel characterization data, wherein the stacked matrix comprises an equivalent channel matrix and a conjugate channel matrix, and wherein the equivalent channel matrix characterizes the channel in absence of I/Q imbalances and the conjugate channel matrix characterizes the I/Q imbalances; computing a plurality of MU-MAS precoder weights based on the stacked matrix, the MU-MAS precoder weights calculated to pre-cancel interference due to I/Q gain and phase imbalances and to pre-cancel inter-user interference; precoding data using the MU-MAS precoder weights to generate precoded data signals for each antenna of the base station; and transmitting the precoded data signals through each antenna of the base station to the wireless client devices. obtaining channel characterization data at a base station, based on channel estimate data or training signals received from wireless client devices, and building a stacked matrix from the channel characterization data, wherein the stacked matrix comprises an equivalent channel matrix and a conjugate channel matrix, and wherein the equivalent channel matrix characterizes the channel in absence of I/Q imbalances and the conjugate channel matrix characterizes the I/Q imbalances; computing a plurality of MU-MAS precoder weights based on the stacked matrix, the MU-MAS precoder weights calculated to pre-cancel interference due to I/Q gain and phase imbalances and to pre-cancel inter-user interference; precoding data using the MU-MAS precoder weights to generate precoded data signals for each antenna of the base station; and transmitting the precoded data signals through each antenna of the base station to the wireless client devices.
A method of performing a host enumeration process, characterised by: providing a bit the status of which indicates to a host whether a host enumeration process performed by the host may start or continue; stalling the host enumeration process if the bit indicates the host enumeration process may not start or continue; performing by a middle manager a shared resource allocation process; and if the shared resource allocation process is completed successfully, setting the bit to indicate to the host that the host enumeration process may start or continue. providing a bit the status of which indicates to a host whether a host enumeration process performed by the host may start or continue; stalling the host enumeration process if the bit indicates the host enumeration process may not start or continue; performing by a middle manager a shared resource allocation process; and if the shared resource allocation process is completed successfully, setting the bit to indicate to the host that the host enumeration process may start or continue.
A bispecific antibody construct comprising a first binding domain which binds to human CD70 on the surface of a target cell and a second binding domain which binds to human CD3 on the surface of a T cell, wherein the first binding domain comprises a VH region comprising CDR-H1, CDR-H2 and CDR-H3 and a VL region comprising CDR-L1, CDR-L2 and CDR-L3, wherein said CDR-H1, CDR-H2, CDR-H3, CDR-L1, CDR-L2 and CDR-L3 are selected from the group consisting of those depicted in: 1) SEQ: ID NOs: 1044-1049; 2) SEQ: ID NOs: 1086-1091; 3) SEQ: ID NOs: 1142-1147; 4) SEQ: ID NOs: 1170-1175; 5) SEQ: ID NOs: 1184-1189; 6) SEQ: ID NOs: 1212-1217; 7) SEQ: ID NOs: 1226-1231; 8) SEQ: ID NOs: 1240-1245; 9) SEQ: ID NOs: 1254-1259; 10) SEQ: ID NOs: 1268-1273; 11) SEQ: ID NOs: 1338-1343; 12) SEQ: ID NOs: 1352-1357; 13) SEQ: ID NOs: 1366-1371; 14) SEQ: ID NOs: 1422-1427; and 15) SEQ: ID NOs: 1436-1441. 1) SEQ: ID NOs: 1044-1049; 2) SEQ: ID NOs: 1086-1091; 3) SEQ: ID NOs: 1142-1147; 4) SEQ: ID NOs: 1170-1175; 5) SEQ: ID NOs: 1184-1189; 6) SEQ: ID NOs: 1212-1217; 7) SEQ: ID NOs: 1226-1231; 8) SEQ: ID NOs: 1240-1245; 9) SEQ: ID NOs: 1254-1259; 10) SEQ: ID NOs: 1268-1273; 11) SEQ: ID NOs: 1338-1343; 12) SEQ: ID NOs: 1352-1357; 13) SEQ: ID NOs: 1366-1371; 14) SEQ: ID NOs: 1422-1427; and 15) SEQ: ID NOs: 1436-1441.
A method for producing a Human Papillomavirus Type 16 (HPV 16) L1 protein, capable of self-assembling into HPV 16 virus-like-particles, said method comprising: a) expressing a gene encoding said HPV 16 L1 protein in E. coli using expression vector pTO-T7; b) disrupting the E. coli, which has expressed said HPV 16 L1 protein, in a solution at a salt concentration of from 100mM to 600mM, and isolating the supernatant; c) decreasing the salt concentration of the supernatant of b) to from 100 mM to 0, inclusive, by using water or a low salt solution, and collecting a precipitate; d) redissolving the precipitate of c) in a solution at a salt concentration of from 150mM to 2500mM, adding a reductant to it, and then isolating the resultant solution, wherein the solution contains said HPV 16 L1 protein with a purity of at least 50%, wherein said HPV 16 L1 protein lacks the first 30 N-terminal amino acids, and wherein the salt is selected from the group consisting of NaCl, KCI, NH 4 Cl, and (NH 4) 2 SO 4. a) expressing a gene encoding said HPV 16 L1 protein in E. coli using expression vector pTO-T7; b) disrupting the E. coli, which has expressed said HPV 16 L1 protein, in a solution at a salt concentration of from 100mM to 600mM, and isolating the supernatant; c) decreasing the salt concentration of the supernatant of b) to from 100 mM to 0, inclusive, by using water or a low salt solution, and collecting a precipitate; d) redissolving the precipitate of c) in a solution at a salt concentration of from 150mM to 2500mM, adding a reductant to it, and then isolating the resultant solution, wherein the solution contains said HPV 16 L1 protein with a purity of at least 50%,
Weapons platform comprising an undercarriage (11, 111) and a weapon (13, 113) arranged in a directable manner with respect to the undercarriage (11, 111), wherein the undercarriage (11, 111) can be supported with respect to the ground beneath by means of a supporting device (16, 116) of a damped design for absorbing firing reaction forces, characterized in that the damping characteristics of the supporting device (16, 116) can be set in dependence on the firing reaction forces of the weapon (13, 113) that are to be expected.
A device for the removal of an intraosseous needle, said needle being of the type comprising a Luer-Lock connector, where the device comprises a traction handle, and said traction handle comprises a gripping part and a shank disposed in a substantially T-shaped arrangement, where a distal end of said shank comprises a connector complementary to the Luer-Lock connector disposed in the intraosseous needle, the device characterized in that the end of the shank opposite the handle comprises a protective sleeve, extendible from a longitudinal inner cavity in the shank, wherein the protective sleeve is substantially concentric with the complementary connector housed in the shank.
A monoclonal antibody comprising at least one heavy chain variable domain and one light chain variable domain, the heavy chain variable domain consisting of the amino acid sequence SEQ ID NO:1 or being coded by the nucleic acid sequence SEQ ID NO:3 and the light chain variable domain consisting of the amino acid sequence SEQ ID NO:2 or being coded by the nucleic acid sequence SEQ ID NO:4, for use as a medicament for the prophylactic or therapeutic treatment of swine-origin influenza A (H1N1) virus (S-OIV) infections or any disease related thereto, such as the so-called "swine flu".
A lamellar personal cleansing composition comprising: 1) 1 to 15%, preferably 1 to 10% by wt. C 8 to C 20 acyl isethionate; 2) 0.5% to 12%, preferably 1 to 10%by wt. acyl glycinate; wherein the amount of C 12 to C 18 chain length is greater than 50% of the amount of C 8, C 10 and C 12 to C 18 chain length glycinate present, 3) 0.5 to 12%, preferably 1 to 10% by wt. acyl glutamate; and 4) 0 to 10%, preferably 0.5 to 5% of an amphoteric surfactant; and 5) 0.1 to 10% by wt lamellar structurant, wherein the lamellar structurant is selected from the group consisting of C 8 -C 18 alkyl fatty acid, alkyl alcohols and mixtures thereof, wherein the amount by wt. of acyl glutamate in the composition as active, is greater than 50% the amount by wt. of acyl isethionate; wherein chain length distribution in the acyl isethionate is such that C 12 chain within the chain length distribution is between 60 to 100%, preferably 70 to 100%.; wherein the pH of the composition is between 6 to 8, more preferably 6.5 to 7.5 and most preferably 6.7 to 7.3. 1) 1 to 15%, preferably 1 to 10% by wt. C 8 to C 20 acyl isethionate; 2) 0.5% to 12%, preferably 1 to 10%by wt. acyl glycinate; wherein the amount of C 12 to C 18 chain length is greater than 50% of the amount of C 8, C 10 and C 12 to C 18 chain length glycinate present, 3) 0.5 to 12%, preferably 1 to 10% by wt. acyl glutamate; and 4) 0 to 10%, preferably 0.5 to 5% of an amphoteric surfactant; and 5) 0.1 to 10% by wt lamellar structurant, wherein the lamellar structurant is selected from the group consisting of C 8 -C 18 alkyl fatty acid, alkyl alcohols and mixtures thereof, wherein chain length distribution in the acyl isethionate is such that C 12 chain within the chain length distribution is between 60 to 100%, preferably 70 to 100%.; wherein the pH of the composition is between 6 to 8, more preferably 6.5 to 7.5 and most preferably 6.7 to 7.3.
A lithium rechargeable battery comprising: an electrode assembly having a rectangular cross-sectional shape in which a separation film and an electrode plate having a current collector, an active material, and a tab are alternately stacked; a lead electrically connected to the tab; and a battery case, the lead being divided into a positive electrode lead and a negative electrode lead, and two positive electrode leads and two negative electrode leads being provided, characterized in that: - the positive electrode leads are provided at two sides of the electrode assembly having four sides, and the negative electrode leads are provided at two other sides of the electrode assembly, - the electrode plates are divided into four groups, each group having aligned tabs for collectively coupling to one of the leads such that each electrode plate is coupled to one of the leads. an electrode assembly having a rectangular cross-sectional shape in which a separation film and an electrode plate having a current collector, an active material, and a tab are alternately stacked; a lead electrically connected to the tab; and a battery case, the lead being divided into a positive electrode lead and a negative electrode lead, and two positive electrode leads and two negative electrode leads being provided, characterized in that: - the positive electrode leads are provided at two sides of the electrode assembly having four sides, and the negative electrode leads are provided at two other sides of the electrode assembly, - the electrode plates are divided into four groups, each group having aligned tabs for collectively coupling to one of the leads such that each electrode plate is coupled to one of the leads. - the positive electrode leads are provided at two sides of the electrode assembly having four sides, and the negative electrode leads are provided at two other sides of the electrode assembly, - the electrode plates are divided into four groups, each group having aligned tabs for collectively coupling to one of the leads such that each electrode plate is coupled to one of the leads.
An apparatus of a user equipment, UE supporting 3GPP LTE, the UE configured to perform short transmission time interval, TTI, data transmission, the apparatus comprising one or more processors and memory, wherein the apparatus is characterized by being configured to: process, for transmission to an eNodeB, control information within a short TTI, wherein the short TTI transmission takes place over a subset of resources available for a PUSCH defined for LTE operating according to a legacy TTI, the subset of resources constitutes a short TTI resource block, RB (230a, 230b,..., 230i,..., 230m, 230n), set within a short physical uplink control channel, S-PUCCH, wherein the short TTI is shorter in time than the legacy TTI that has a duration of one millisecond, and wherein the S-PUCCH is a subset of resources available for a short physical uplink shared channel, S-PUSCH, and the S-PUSCH is a subset of resources available for the PUSCH; and process, for transmission to the eNodeB, data within the short TTI over the short TTI RB (230a, 230b,..., 230i,..., 230m, 230n) set within the S-PUSCH. process, for transmission to an eNodeB, control information within a short TTI, wherein the short TTI transmission takes place over a subset of resources available for a PUSCH defined for LTE operating according to a legacy TTI, the subset of resources constitutes a short TTI resource block, RB (230a, 230b,..., 230i,..., 230m, 230n), set within a short physical uplink control channel, S-PUCCH, wherein the short TTI is shorter in time than the legacy TTI that has a duration of one millisecond, and wherein the S-PUCCH is a subset of resources available for a short physical uplink shared channel, S-PUSCH, and the S-PUSCH is a subset of resources available for the PUSCH; and process, for transmission to the eNodeB, data within the short TTI over the short TTI RB (230a, 230b,..., 230i,..., 230m, 230n) set within the S-PUSCH.
A progressive addition lens with simultaneous myopic defocus providing microlenses, where the power variation surface provides at least - a designated distance portion located in an upper section of the progressive addition lens adapted to distance vision; - a designated near portion located in a lower section of the progressive addition lens, the near portion including a near reference point defining the apex of the near portion and having a near dioptric power adapted to near vision; and - a designated intermediate corridor extending between the designated distance portion and the designated near portion; where a number of microlenses is superimposed on a surface of the progressive addition lens, characterised in that microlenses are excluded from all areas of said surface which are located below a notional line that extends from nasal to temporal limits of the progressive addition lens at a vertical coordinate (y) above the near reference point where the vertical coordinate (y) lies at a distance above the near reference point with the distance being in a range between 1.5 mm and 3 mm. - a designated distance portion located in an upper section of the progressive addition lens adapted to distance vision; - a designated near portion located in a lower section of the progressive addition lens, the near portion including a near reference point defining the apex of the near portion and having a near dioptric power adapted to near vision; and - a designated intermediate corridor extending between the designated distance portion and the designated near portion; where a number of microlenses is superimposed on a surface of the progressive addition lens, characterised in that microlenses are excluded from all areas of said surface which are located below a notional line that extends from nasal to temporal limits of the progressive addition lens at a vertical coordinate (y) above the near reference point where the vertical coordinate (y) lies at a distance above the near reference point with the distance being in a range between 1.5 mm and 3 mm.