mhurhangee/ep-ind-claims huggingface dataset:
A feedthrough device comprising: a body having longitudinally spaced first and second end faces (308, 310) and an inner surface defining an opening extending longitudinally through the body; a conductor extending within the opening of the body; and an insulator extending within the opening of the body transversely intermediate the conductor and the inner surface of the body to insulate the conductor from the body; wherein the conductor comprises an interior portion surrounded by the insulator and an exterior portion extending beyond the insulator; characterised in that the exterior portion is bent relative to the interior portion and said exterior portion defines: a flattened portion having a width that is greater than a diameter of the interior portion; and a neck extending between the interior portion and the flattened portion, wherein the neck has a width less than the width of the flattened portion and defines a radius of curvature between the interior portion and the flattened portion. a body having longitudinally spaced first and second end faces (308, 310) and an inner surface defining an opening extending longitudinally through the body; a conductor extending within the opening of the body; and an insulator extending within the opening of the body transversely intermediate the conductor and the inner surface of the body to insulate the conductor from the body; wherein the conductor comprises an interior portion surrounded by the insulator and an exterior portion extending beyond the insulator; characterised in that the exterior portion is bent relative to the interior portion and said exterior portion defines: a flattened portion having a width that is greater than a diameter of the interior portion; and a neck extending between the interior portion and the flattened portion, wherein the neck has a width less than the width of the flattened portion and defines a radius of curvature between the interior portion and the flattened portion. a flattened portion having a width that is greater than a diameter of the interior portion; and a neck extending between the interior portion and the flattened portion, wherein the neck has a width less than the width of the flattened portion and defines a radius of curvature between the interior portion and the flattened portion.
Pneumatic vehicle tyre, in particular for use in winter driving conditions, comprising a tread with profile positives separated from one another by grooves, for example profile blocks, in which sipes are formed, running substantially in the axial direction, each reaching down in the radial direction to a depth (t) of 70% to 100% of the maximum profile depth, each having two sipe walls running symmetrically in relation to the centre plane of the sipe and being made up in the radial direction of three adjoining portions (4a, 4b, 4c), comprising a radially outer portion, which is substantially bounded by wall portions running in the radial direction and extends down to a depth (t 1) of 70% to 90% of the depth (t) of the sipe, a middle portion, running between the radially outer portion and the radially inner portion, and comprising a radially inner portion, which has wall portions which in cross section extend from the centre plane outwards in a rounded fashion, characterized in that the middle portion, running between the radially outer portion and the radially inner portion, extends down to a depth (t 2) of 80% to 95% of the depth (t) of the sipe and is bounded by wall portions, which while widening the middle portion run in the direction of the sipe base in each case at an angle (α) of 5° to 60° in relation to the radial direction, the curved profile of the wall portions in the radially inner portion being based on radii of which the associated centres of circles lie along a line (l 1) running perpendicularly to the centre plane of the sipe, the centre of the circle associated with the smallest radius (r 1) lying on the centre plane and this radius (r 1) running to the lowest point (P 1) of the sipe, the greatest radius (r 2) in each case running to the radially outer end point (P 2) of each wall portion and the centre of its circle being the centre lying furthest away from the centre plane, and the radii continuously increasing between the points (P 1, P 2) and the distance of the centres of the associated circles from the centre plane becoming greater.
An unlatching tool configured for actuating a movable section of a control rod drive shaft in a pressurized water reactor the unlatching tool comprising: a base; a gripper assembly configured for gripping the movable section of the control rod drive shaft; a rod movably connecting the gripper assembly to the base; and a mechanical actuator fixed to the base and configured to raise and lower the gripper assembly, characterized in that the unlatching tool in addition comprises: an outer assembly rotatably fixed to the base; an inner support assembly non-rotatably fixed to the base; a latch rotatably coupled to the inner support assembly for rotation about a latch axis extending parallel to a center axis of the unlatching tool; and a latch actuator fixed to the outer assembly and configured for rotating the outer assembly such that the latch is rotated about the latch axis radially inward toward the center axis of the unlatching tool. a base; a gripper assembly configured for gripping the movable section of the control rod drive shaft; a rod movably connecting the gripper assembly to the base; and a mechanical actuator fixed to the base and configured to raise and lower the gripper assembly, characterized in that the unlatching tool in addition comprises: an outer assembly rotatably fixed to the base; an inner support assembly non-rotatably fixed to the base; a latch rotatably coupled to the inner support assembly for rotation about a latch axis extending parallel to a center axis of the unlatching tool; and a latch actuator fixed to the outer assembly and configured for rotating the outer assembly such that the latch is rotated about the latch axis radially inward toward the center axis of the unlatching tool. an outer assembly rotatably fixed to the base; an inner support assembly non-rotatably fixed to the base; a latch rotatably coupled to the inner support assembly for rotation about a latch axis extending parallel to a center axis of the unlatching tool; and a latch actuator fixed to the outer assembly and configured for rotating the outer assembly such that the latch is rotated about the latch axis radially inward toward the center axis of the unlatching tool.
A method performed by a network entity associated with a wireless communication system, the method comprising: determining at least one deep neural network, DNN, configuration for processing information exchanged with a user equipment, UE, over the wireless communication system using a simultaneous connection to multiple component carriers that include at least a first component carrier and a second component carrier, the at least one DNN configuration including a first portion of the at least one DNN configuration for forming a first DNN at the network entity, and a second portion of the at least one DNN configuration for forming a second DNN at the UE, the determining the at least one DNN configuration being based, at least in part, on a count of component carriers included in the multiple component carriers; forming the first DNN based on the first portion; communicating an indication of the second portion to the UE and directing the UE to form the second DNN based on the second portion; and using the first DNN to perform transmitter and/or receiver processing chain operations to exchange, over the wireless communication system, the information with the UE using the simultaneous connection to the multiple component carriers. determining at least one deep neural network, DNN, configuration for processing information exchanged with a user equipment, UE, over the wireless communication system using a simultaneous connection to multiple component carriers that include at least a first component carrier and a second component carrier, the at least one DNN configuration including a first portion of the at least one DNN configuration for forming a first DNN at the network entity, and a second portion of the at least one DNN configuration for forming a second DNN at the UE, the determining the at least one DNN configuration being based, at least in part, on a count of component carriers included in the multiple component carriers; forming the first DNN based on the first portion; communicating an indication of the second portion to the UE and directing the UE to form the second DNN based on the second portion; and using the first DNN to perform transmitter and/or receiver processing chain operations to exchange, over the wireless communication system, the information with the UE using the simultaneous connection to the multiple component carriers.
An amphoteric polymer comprising: a structure unit (a) derived from a cationic group-containing monomer; and a structure unit (b) derived from a carboxyl group-containing monomer, the cationic group-containing monomer represented by the formula or: wherein R 0 represents H or CH 3; R 1 represents CH 2, CH 2 CH 2, or a direct bond; R 2, R 3, and R 4 each represent a C 1-20 organic group, and each of R 2, R 3, and R 4 may be the same as or different from each other; R 5 and R 6 each represent H or a C 1-20 organic group and may be the same as or different from each other; Y 1 represents a C 2-20 alkylene group, and each of Y 1 s may be the same as or different from each other; n represents an average addition number of moles of oxyalkylene groups (-Y 1 -O-) and is from 1 to 300; and X - represents a counteranion, wherein, the structure unit (a) is present at a level of 1 to 99% by mass based on 100% by mass of all structure units derived from all monomers in the amphoteric polymer, and the structure unit (b) is present at a level of 1 to 99% by mass based on 100% by mass of all the structure units derived from all the monomers in the amphoteric polymer. a structure unit (a) derived from a cationic group-containing monomer; and a structure unit (b) derived from a carboxyl group-containing monomer, the cationic group-containing monomer represented by the formula or: wherein R 0 represents H or CH 3; R 1 represents CH 2, CH 2 CH 2, or a direct bond; R 2, R 3, and R 4 each represent a C 1-20 organic group, and each of R 2, R 3, and R 4 may be the same as or different from each other; R 5 and R 6 each represent H or a C 1-20 organic group and may be the same as or different from each other; Y 1 represents a C 2-20 alkylene group, and each of Y 1 s may be the same as or different from each other; n represents an average addition number of moles of oxyalkylene groups (-Y 1 -O-) and is from 1 to 300; and X - represents a counteranion, wherein, the structure unit (a) is present at a level of 1 to 99% by mass based on 100% by mass of all structure units derived from all monomers in the amphoteric polymer, and the structure unit (b) is present at a level of 1 to 99% by mass based on 100% by mass of all the structure units derived from all the monomers in the amphoteric polymer.
A vessel of a heat storage and release apparatus, said vessel comprising: - a shell made of metallic material, said shell having an elongated shape with a first end region and a second end region remote from said first end region, and an internal surface defining a cavity containing a heat storage and release device and guide gas-flow, - a first opening through said shell for a flow of gas at high temperature and high pressure, located in said first end region, - a second opening through said shell for a flow of gas at low temperature and high pressure, located in said second end region, - an external layer of thermally insulating material provided on the shell, and - a lining of thermally insulating material adjacent to said internal surface and covering only partially said internal surface, characterised in that said lining is located at least in said first end region where the first opening is located to thermally insulate the shell from the hot gas; - wherein said lining is covered by a thin layer of protective stainless steel. - a shell made of metallic material, said shell having an elongated shape with a first end region and a second end region remote from said first end region, and an internal surface defining a cavity containing a heat storage and release device and guide gas-flow, - a first opening through said shell for a flow of gas at high temperature and high pressure, located in said first end region, - a second opening through said shell for a flow of gas at low temperature and high pressure, located in said second end region, - an external layer of thermally insulating material provided on the shell, and - a lining of thermally insulating material adjacent to said internal surface and covering only partially said internal surface, characterised in that said lining is located at least in said first end region where the first opening is located to thermally insulate the shell from the hot gas; - wherein said lining is covered by a thin layer of protective stainless steel.
A method for authentication through combination of identity and privilege, comprising: acquiring the privilege security level corresponding to a client-end; inquiring the identity security level corresponding to the privilege security level according to an established relation of association between privilege security level and identity security level; determining authentication parameters for identity authentication according to the identity security level; performing identity authentication on the client-end using the authentication parameters; and obtaining an authentication result. acquiring the privilege security level corresponding to a client-end; inquiring the identity security level corresponding to the privilege security level according to an established relation of association between privilege security level and identity security level; determining authentication parameters for identity authentication according to the identity security level; performing identity authentication on the client-end using the authentication parameters; and obtaining an authentication result.
A device for donning socks, comprising: a substantially horizontal base; an elongated U-shaped, semi-cylindrical caddy on which a sock positioned inside out is fittable and into an interior of which a foot is insertable; a tilt unit coupled to said caddy and pivotally connected to a head portion (111, 112) of said base, wherein the tilt unit comprises a dual-axis gimbaling mechanism; and a handle assembly, wherein the semi-cylindrical caddy comprises two elongated slider channels (421, 422), and wherein said handle assembly is configured to slide back-and-forth within said elongated slider channels. a substantially horizontal base; an elongated U-shaped, semi-cylindrical caddy on which a sock positioned inside out is fittable and into an interior of which a foot is insertable; a tilt unit coupled to said caddy and pivotally connected to a head portion (111, 112) of said base, wherein the tilt unit comprises a dual-axis gimbaling mechanism; and a handle assembly, wherein the semi-cylindrical caddy comprises two elongated slider channels (421, 422), and wherein said handle assembly is configured to slide back-and-forth within said elongated slider channels.
A video reception device configured to transmit and receive data through a communication network, the video reception device comprising: an input unit configured to receive an input of a video signal; a video extraction unit configured to extract a partial video for video recognition processing, from the video signal; a video recognition region setting unit configured to detect superimposing information superimposed on the partial video, and set a video recognition region to a region of the partial video except for a display region of superimposing information; an additional information display control unit configured to generate a content recognition information in the video recognition region of the partial video; a control unit configured to perform control of transmitting the content recognition information to a video recognition device connected to the communication network so as to request the video recognition device to perform the video recognition processing, obtaining a result of the video recognition processing from the video recognition device, and obtaining additional information based on the result of the video recognition processing from an additional information distribution device connected to the communication network; wherein said additional information display control unit is configured to perform control of superimposing the additional information on the video recognition region of the video signal. an input unit configured to receive an input of a video signal; a video extraction unit configured to extract a partial video for video recognition processing, from the video signal; a video recognition region setting unit configured to detect superimposing information superimposed on the partial video, and set a video recognition region to a region of the partial video except for a display region of superimposing information; an additional information display control unit configured to generate a content recognition information in the video recognition region of the partial video; a control unit configured to perform control of transmitting the content recognition information to a video recognition device connected to the communication network so as to request the video recognition device to perform the video recognition processing, obtaining a result of the video recognition processing from the video recognition device, and obtaining additional information based on the result of the video recognition processing from an additional information distribution device connected to the communication network; wherein said additional information display control unit is configured to perform control of superimposing the additional information on the video recognition region of the video signal.
A method performed by an intermediate radio unit, IRU of a base station system, the base station system comprising the IRU, a baseband unit, BBU connected to the IRU, and a first radio head, RH, connected to the IRU via a packet data network, the first RH being arranged for wireless transmission in radio frequency, RF, of a plurality of antenna carriers to user equipments, UEs, the plurality of antenna carriers being transmitted from the first RH at individually different RFs, the method comprising: receiving, from the BBU, a plurality of first digital representations of the plurality of antenna carriers of the first RH, each first digital representation representing one antenna carrier, the plurality of first digital representations being received in a baseband frequency range, frequency multiplexing the plurality of first digital representations of the plurality of antenna carriers into a second digital representation over a first instantaneous bandwidth, wherein in the frequency multiplexing, the plurality of antenna carriers are distributed in frequency across the first instantaneous bandwidth according to their individual RFs for transmission from the first RH to the UEs, so that the plurality of antenna carriers are distributed along the first instantaneous bandwidth in the same frequency relation as they are to have when being transmitted in RF from the first RH; and transmitting the second digital representation to the first RH. receiving, from the BBU, a plurality of first digital representations of the plurality of antenna carriers of the first RH, each first digital representation representing one antenna carrier, the plurality of first digital representations being received in a baseband frequency range, frequency multiplexing the plurality of first digital representations of the plurality of antenna carriers into a second digital representation over a first instantaneous bandwidth, wherein in the frequency multiplexing, the plurality of antenna carriers are distributed in frequency across the first instantaneous bandwidth according to their individual RFs for transmission from the first RH to the UEs, so that the plurality of antenna carriers are distributed along the first instantaneous bandwidth in the same frequency relation as they are to have when being transmitted in RF from the first RH; and transmitting the second digital representation to the first RH.
A method of preparing n -octanol, the method comprising: forming an octanol reaction mixture gas comprising a source of ethanol, a source of hydrogen, and a source of n -hexanol comprising at least 50 mole percent recovered n- hexanol, the octanol reaction mixture comprising a mole ratio ethanol to n -hexanol of from 0.3:1 to 3:1; reacting the octanol reaction mixture gas by contact with a heterogeneous metal oxide Guerbet catalyst, in a gas phase octanol reactor having a fixed catalyst bed at a reaction temperature of from 150°C to 450°C and a reaction pressure of from 1000 kPa to 20,000 kPa (10 to 200 bara) to form an octanol reactor product stream comprising ethanol, water, n -butanol, n -hexanol, n -octanol and hydrogen wherein the selectivity to n -octanol is at least 10% on a carbon basis and wherein the selectivity n- butanol is at least 10% on a carbon basis; and fractionating the octanol reactor product stream to form recovered n -hexanol, a n- butanol product stream and a n -octanol product stream, wherein the catalyst is a metal oxide comprising: (i) at least one bivalent metal, M1, selected from Mg, Zn, Cu, Co, Mn, Fe, Ni and Ca, (ii) at least one trivalent metal, M2, selected from Al, La, Fe, Cr, Mn, Co, Ni and Ga, (iii) at least one noble metal selected from Pd, Pt, Ru, Rh and Re, and, optionally, (iv) V, wherein the catalyst comprises V, Ga, or a combination thereof. forming an octanol reaction mixture gas comprising a source of ethanol, a source of hydrogen, and a source of n -hexanol comprising at least 50 mole percent recovered n- hexanol, the octanol reaction mixture comprising a mole ratio ethanol to n -hexanol of from 0.3:1 to 3:1; reacting the octanol reaction mixture gas by contact with a heterogeneous metal oxide Guerbet catalyst, in a gas phase octanol reactor having a fixed catalyst bed at a reaction temperature of from 150°C to 450°C and a reaction pressure of from 1000 kPa to 20,000 kPa (10 to 200 bara) to form an octanol reactor product stream comprising ethanol, water, n -butanol, n -hexanol, n -octanol and hydrogen wherein the selectivity to n -octanol is at least 10% on a carbon basis and wherein the selectivity n- butanol is at least 10% on a carbon basis; and fractionating the octanol reactor product stream to form recovered n -hexanol, a n- butanol product stream and a n -octanol product stream, wherein the catalyst is a metal oxide comprising: (i) at least one bivalent metal, M1, selected from Mg, Zn, Cu, Co, Mn, Fe, Ni and Ca, (ii) at least one trivalent metal, M2, selected from Al, La, Fe, Cr, Mn, Co, Ni and Ga, (iii) at least one noble metal selected from Pd, Pt, Ru, Rh and Re, and, optionally, (iv) V, wherein the catalyst comprises V, Ga, or a combination thereof.
A wind power generator equipped with a cooling system, the wind power generator comprising a nacelle; a hub rotating about an axis of rotation with respect to the nacelle; at least two blades fitted to the hub; an electric machine which is fitted to the nacelle, is bounded by an inner surface extending about the axis of rotation, has a rotor and a stator extending about the rotor, and is a hollow cylindrical generator the inner surface of electric machine being the inner surface of rotor; and a cooling system for airflow cooling the electric machine, and which comprises a deflector body fitted to the rotor for defining a gap between the deflector body and the inner surface of the electric machine and guiding the airflow into the gap, wherein the deflector body comprises a number of panels (38, 39, 41) assembled removably to one another.