mhurhangee/ep-ind-claims huggingface dataset:
A battery system, comprising: - an electrochemical cell, comprising: - a drawn can comprising a blind side and a second side opposite the blind side, wherein an opening having a flat edge is formed on the second side of the can; - a positive terminal disposed in the blind side of the can and electrically coupled to at least one positive electrode disposed within the can; - a negative terminal disposed in the blind side of the can and electrically coupled to at least one negative electrode disposed within the can; and - a base coupled to the flat edge of the can, characterized in that the base comprises a first portion having a length that is longer than a length of the can and a second portion extending upward from the first portion such that the second portion of the base is configured to engage the opening formed in the second side of the can, and wherein a flat contact surface of the first portion is configured to contact the flat edge of the can to form a seam between the base and the can. - an electrochemical cell, comprising: - a drawn can comprising a blind side and a second side opposite the blind side, wherein an opening having a flat edge is formed on the second side of the can; - a positive terminal disposed in the blind side of the can and electrically coupled to at least one positive electrode disposed within the can; - a negative terminal disposed in the blind side of the can and electrically coupled to at least one negative electrode disposed within the can; and - a base coupled to the flat edge of the can, - a drawn can comprising a blind side and a second side opposite the blind side, wherein an opening having a flat edge is formed on the second side of the can; - a positive terminal disposed in the blind side of the can and electrically coupled to at least one positive electrode disposed within the can; - a negative terminal disposed in the blind side of the can and electrically coupled to at least one negative electrode disposed within the can; and - a base coupled to the flat edge of the can,
A headrest system, comprising: a headrest; a bracket having a longitudinal member for mounting the headrest to a seat; and an actuator configured to displace at least a portion (15; 17) of the headrest relative to the bracket in a displacement direction arranged at an angle relative to the longitudinal member, wherein the actuator comprises a spindle transmission (22, 23) and a power drive coupled to the spindle transmission (22, 23), the spindle transmission (22, 23) comprising a spindle and a spindle nut engaged with the spindle, the power drive being arranged in a cavity defined within an outer shell of the headrest, wherein the power drive comprises a motor,, wherein the spindle and spindle nut are arranged in the cavity, characterized in that the spindle is arranged in the cavity such that a longitudinal axis of the spindle is transverse to the displacement direction, and the actuator has a speed reduction mechanism (42-44, 46, 47) having at least two speed reduction stages coupled between the motor and the spindle transmission (22, 23). a headrest; a bracket having a longitudinal member for mounting the headrest to a seat; and an actuator configured to displace at least a portion (15; 17) of the headrest relative to the bracket in a displacement direction arranged at an angle relative to the longitudinal member, wherein the actuator comprises a spindle transmission (22, 23) and a power drive coupled to the spindle transmission (22, 23), the spindle transmission (22, 23) comprising a spindle and a spindle nut engaged with the spindle, the power drive being arranged in a cavity defined within an outer shell of the headrest, wherein the power drive comprises a motor,, wherein the spindle and spindle nut are arranged in the cavity, characterized in that the spindle is arranged in the cavity such that a longitudinal axis of the spindle is transverse to the displacement direction, and the actuator has a speed reduction mechanism (42-44, 46, 47) having at least two speed reduction stages coupled between the motor and the spindle transmission (22, 23).
A method of producing a three-dimensional porous tissue in-growth structure comprising the steps of: depositing a first layer of a powder made from a metal selected from the group consisting of titanium, titanium alloys, stainless steel, cobalt chrome alloys, tantalum and niobium onto a substrate; scanning an energy beam having a power for a period of time ( μ s), so as to melt said powder and form a portion of a plurality of predetermined unit cells within said first powder layer; depositing at least one additional layer of said powder onto said first powder layer; and repeating said scanning step to form additional portions of said plurality of predetermined unit cells, wherein at least some of said predetermined unit cells are any of a tetrahedron, a dodecahedron, a diamond, and an octahedron, varying porosity within said three-dimensional porous tissue in-growth structure through a random perturbation applied in any direction to vertices of said predetermined unit cells to randomize the geometry of said predetermined unit cells. depositing a first layer of a powder made from a metal selected from the group consisting of titanium, titanium alloys, stainless steel, cobalt chrome alloys, tantalum and niobium onto a substrate; scanning an energy beam having a power for a period of time ( μ s), so as to melt said powder and form a portion of a plurality of predetermined unit cells within said first powder layer; depositing at least one additional layer of said powder onto said first powder layer; and repeating said scanning step to form additional portions of said plurality of predetermined unit cells, wherein at least some of said predetermined unit cells are any of a tetrahedron, a dodecahedron, a diamond, and an octahedron, varying porosity within said three-dimensional porous tissue in-growth structure through a random perturbation applied in any direction to vertices of said predetermined unit cells to randomize the geometry of said predetermined unit cells.
A tooling mandrel for manufacturing a composite structure having a cavity, comprising: a mandrel body for a composite laminate cavity; a fluid passage network formed within the mandrel body for passing a fluid medium through the mandrel body; and the fluid passage network having a passage cross-sectional area shaped to promote thermal conductance between the fluid medium and the tooling mandrel and cause a change in a mandrel cross-sectional shape to facilitate removal of the tooling mandrel from the composite laminate cavity; and wherein: the fluid passage network includes at least two primary flow passages configured for the fluid medium in one of the primary flow passages to flow along a direction opposite the fluid medium in another one of the primary flow passages. a mandrel body for a composite laminate cavity; a fluid passage network formed within the mandrel body for passing a fluid medium through the mandrel body; and the fluid passage network having a passage cross-sectional area shaped to promote thermal conductance between the fluid medium and the tooling mandrel and cause a change in a mandrel cross-sectional shape to facilitate removal of the tooling mandrel from the composite laminate cavity; and wherein: the fluid passage network includes at least two primary flow passages configured for the fluid medium in one of the primary flow passages to flow along a direction opposite the fluid medium in another one of the primary flow passages.
A base station (100, 200) comprising: communication means for receiving a first reference signal transmitted from a first base station and a second reference signal transmitted from a communication device different from the first base station; and execution means (20, 23) for obtaining synchronization between the base station and the first base station based on the first and second reference signals, characterised in that the execution means (20, 23) is adapted to: obtain (24, 25) a first reception level of the first reference signal and a second reception level of the second reference signal; obtain (210, 211) a first receiving timing of the first reference signal and a second reception timing of the second reference signal; calculate a combined receiving timing by combining the first receiving timing with the second receiving timing while using the first and second reception levels as weighting coefficients, respectively, for the first and second receiving timing; and synchronize with the first base station based on the combined receiving timing. communication means for receiving a first reference signal transmitted from a first base station and a second reference signal transmitted from a communication device different from the first base station; and execution means (20, 23) for obtaining synchronization between the base station and the first base station based on the first and second reference signals, characterised in that the execution means (20, 23) is adapted to: obtain (24, 25) a first reception level of the first reference signal and a second reception level of the second reference signal; obtain (210, 211) a first receiving timing of the first reference signal and a second reception timing of the second reference signal; calculate a combined receiving timing by combining the first receiving timing with the second receiving timing while using the first and second reception levels as weighting coefficients, respectively, for the first and second receiving timing; and synchronize with the first base station based on the combined receiving timing. obtain (24, 25) a first reception level of the first reference signal and a second reception level of the second reference signal; obtain (210, 211) a first receiving timing of the first reference signal and a second reception timing of the second reference signal; calculate a combined receiving timing by combining the first receiving timing with the second receiving timing while using the first and second reception levels as weighting coefficients, respectively, for the first and second receiving timing; and synchronize with the first base station based on the combined receiving timing.
A method, comprising: receiving a telephonic listener's demographic information; retrieving a set of preset parameters from a database based on the demographic information, wherein the set of preset parameters is calculated using suprathreshold hearing data representative of the demographic information, outputting the set of parameters to a sound personalization digital signal processing algorithm, processing a voice signal using the sound personalization digital signal processing algorithm, outputting the processed voice signal to a transducer; characterized in that: the sound personalization digital signal processing algorithm is a multiband dynamics processor. receiving a telephonic listener's demographic information; retrieving a set of preset parameters from a database based on the demographic information, wherein the set of preset parameters is calculated using suprathreshold hearing data representative of the demographic information, outputting the set of parameters to a sound personalization digital signal processing algorithm, processing a voice signal using the sound personalization digital signal processing algorithm, outputting the processed voice signal to a transducer; characterized in that: the sound personalization digital signal processing algorithm is a multiband dynamics processor.
A method for forming a print, using a transfer film comprising a transfer layer provided on one surface of a support, a thermal transfer sheet comprising a peel-off layer provided on a substrate, and a transfer receiving article; comprising, removing a removal region of the transfer layer of the transfer film by means of the peel-off layer of the thermal transfer sheet; and transferring the transfer layer, from which the removal region has been removed, onto the transfer receiving article; the method being characterized by: preparing the transfer film in which the transfer layer is provided on one surface of the support; preparing as the thermal transfer sheet (i) a thermal transfer sheet comprising a fusible layer and a peel-off layer provided on the same surface of the substrate or (ii) a first thermal transfer sheet comprising a fusible layer provided on one surface of a first substrate and a second thermal transfer sheet comprising a peel-off layer provided on one surface of a second substrate; transferring the fusible layer onto at least a portion on the removal region of the transfer layer; removing the removal region of the transfer layer by means of the peel-off layer after transferring the fusible layer, and transferring the transfer layer, from which the removal region has been removed, onto the transfer receiving article.
A method of identifying a α-N-acetylglucosaminidase (NAGLU) polypeptide binding compound, the method comprising: computationally identifying a binding compound that binds to a NAGLU polypeptide using the atomic coordinates of amino acid N 134, C 136, Y 140, W 201, M 204, W 268, N 315, E 316, W 352, L 383, L 407, F 410, E 446, H 512, W 649, I 655, and Y 658 as set forth in Table 5: computationally identifying a binding compound that binds to a NAGLU polypeptide using the atomic coordinates of amino acid N 134, C 136, Y 140, W 201, M 204, W 268, N 315, E 316, W 352, L 383, L 407, F 410, E 446, H 512, W 649, I 655, and Y 658 as set forth in Table 5:
A method, performed by a first device, of sharing a key, the method comprising: determining a communication method for exchanging a key between the first device and a second device, based on pre-set channel ranking information; receiving a key of the second device from the second device by using the determined communication method; determining an authentication method for authenticating the key of the second device, wherein determining to use a first authentication method based on the key being received using a first communication method and determining to use a second authentication method different from the first authentication method based on the key being received using a second communication method; and authenticating the received key of the second device using the determined authentication method. determining a communication method for exchanging a key between the first device and a second device, based on pre-set channel ranking information; receiving a key of the second device from the second device by using the determined communication method; determining an authentication method for authenticating the key of the second device, wherein determining to use a first authentication method based on the key being received using a first communication method and determining to use a second authentication method different from the first authentication method based on the key being received using a second communication method; and authenticating the received key of the second device using the determined authentication method.
Aqueous coating composition comprising (a) at least one aqueous dispersion of a radically polymerized addition polymer, wherein the dispersed polymer is at least one polymer selected from the group consisting of acrylic copolymers, styrene-acrylic copolymers, vinyl-acrylic copolymers, styrene-butadiene copolymers, vinyl acetate copolymers, vinyl chloride copolymers and vinylidene chloride copolymers, and (b) at least one phyllosilicate, wherein the aqueous polymer dispersion has an electrical conductivity below 0.6 mS/cm, measured at a concentration of 2.5 wt.-% of solids and at 20°C. (a) at least one aqueous dispersion of a radically polymerized addition polymer, wherein the dispersed polymer is at least one polymer selected from the group consisting of acrylic copolymers, styrene-acrylic copolymers, vinyl-acrylic copolymers, styrene-butadiene copolymers, vinyl acetate copolymers, vinyl chloride copolymers and vinylidene chloride copolymers, and (b) at least one phyllosilicate,
A packet data network gateway (312, 412), P-GW, located in a second network for supporting control plane data in a wireless communications system that comprises a serving gateway, S-GW and additionally comprises a first network having a first P-GW operably couplable to the P-GW (312, 412); the P-GW (312, 412) characterised by a processor arranged to: establish a backhaul link between the packet data network gateway (312, 412) and the first P-GW; monitor and build terminal device context information for a plurality of terminal devices being served with user plane data by the backhaul link; and determine an operational status of at least one of: the backhaul link, the first P-GW, wherein the operational status indicates whether or not the at least one of: the backhaul link, the first P-GW is available, wherein, if the operational status indicates that the at least one of: the backhaul link, the first P-GW, is unavailable, the processor is arranged to perform at least some functionality of the first P-GW, wherein performing at least some functionality of the first P-GW comprises the processor arrariged to: terminate signalling between the first network and at least one of: a mobility management entity, the S-GW in the second network; and defer signalling between the first P-GW in the first network and the P-GW (312, 412) in the second network. establish a backhaul link between the packet data network gateway (312, 412) and the first P-GW; monitor and build terminal device context information for a plurality of terminal devices being served with user plane data by the backhaul link; and determine an operational status of at least one of: the backhaul link, the first P-GW, wherein the operational status indicates whether or not the at least one of: the backhaul link, the first P-GW is available, wherein, if the operational status indicates that the at least one of: the backhaul link, the first P-GW, is unavailable, the processor is arranged to perform at least some functionality of the first P-GW, wherein performing at least some functionality of the first P-GW comprises the processor arrariged to: terminate signalling between the first network and at least one of: a mobility management entity, the S-GW in the second network; and defer signalling between the first P-GW in the first network and the P-GW (312, 412) in the second network. terminate signalling between the first network and at least one of: a mobility management entity, the S-GW in the second network; and defer signalling between the first P-GW in the first network and the P-GW (312, 412) in the second network.
A composition for forming a passivation layer, comprising an alkoxide represented by the following Formula; at least one compound selected from the group consisting of a titanium compound, a zirconium compound and a silicon alkoxide; a solvent; and a resin: M(OR 1) m wherein, in Formula, M comprises at least one metal element selected from the group consisting of Nb, Ta, V, Y and Hf, each R 1 independently represents an alkyl group having from 1 to 8 carbon atoms or an aryl group having from 6 to 14 carbon atoms, and m represents an integer from 1 to 5; characterised in that the composition further comprises a compound represented by the following Formula: wherein, in Formula, each R 2 independently represents an alkyl group having from 1 to 8 carbon atoms, n represents an integer from 0 to 3, each of X 2 and X 3 independently represents an oxygen atom or a methylene group, and each of R 3, R 4 and R 5 independently represents a hydrogen atom or an alkyl group having from 1 to 8 carbon atoms.
A data storage device, comprising: data storage comprising a first logical unit configured to store user data and a second logical unit configured to store a network attached storage operating system; a first interface configured to couple to a host; and a second interface configured to couple to a network, a second controller coupled to the second interface; and a first controller coupled to the data storage and selectively configured to be coupled to one of the first interface and the second controller; wherein, in a direct attached storage mode, the first controller is coupled to the first interface to render the first logical unit accessible to the host and render the second logical unit inaccessible to the host, and, in a network attached storage mode, the first controller is coupled to the second controller to render both the first logical unit and the second logical unit accessible to the second controller to enable the data storage device to configure itself as a network attached storage and so provide network attached storage functionality, and wherein the second controller is only active when the data storage device operates in the network attached storage mode, and is configured to boot from the second logical unit. data storage comprising a first logical unit configured to store user data and a second logical unit configured to store a network attached storage operating system; a first interface configured to couple to a host; and a second interface configured to couple to a network, a second controller coupled to the second interface; and a first controller coupled to the data storage and selectively configured to be coupled to one of the first interface and the second controller; wherein, in a direct attached storage mode, the first controller is coupled to the first interface to render the first logical unit accessible to the host and render the second logical unit inaccessible to the host, and, in a network attached storage mode, the first controller is coupled to the second controller to render both the first logical unit and the second logical unit accessible to the second controller to enable the data storage device to configure itself as a network attached storage and so provide network attached storage functionality, and wherein the second controller is only active when the data storage device operates in the network attached storage mode, and is configured to boot from the second logical unit.
A vacuum pump having a mechanism comprising; a perforated element arranged to intersect a channel formed on a surface of a channel member, said channel being arranged to guide gas molecules from an inlet of the pump towards an outlet, wherein the perforated element and channel member are arranged to move relative to one another so that, during use, gas molecules are urged along the channel towards the outlet, said perforated element being arranged to allow gas molecules to pass through it; characterised in that the channel member comprises a slot, disposed in a wall of the channel, arranged to accommodate the perforated element at a point where the perforated element intersects the channel.
Portable device for putting an inhaler into a triggering-ready state by adding energy to a mechanical energy store of the inhaler, wherein in order to put the inhaler into the triggering-ready state the inhaler can be inserted into the device and/or mechanically coupled to the device, wherein the device can be manually transported by a user or patient by hand without aids, wherein the inhaler does not have to be removed from the device in order to use it and wherein the inhaler can be taken in combination with the device, can manually be moved or lifted by a user or patient and brought to the patient's mouth for the inhalation, wherein the device comprises a motor drive, wherein the drive is designed for the relative movement of two housing parts (16, 17, 18) of the inhaler inserted into the device and/or coupled to the device, with respect to one another, wherein by the movement of the housing parts (16, 17, 18) relative to one another energy can be added mechanically to the energy store, characterised in that the device and/or the drive are designed to rotate the housing parts (16, 17, 18) relative to one another.