mhurhangee/ep-ind-claims huggingface dataset:
Cutting blade (10;110;210;310;410) for grafting plants, consisting of a plate provided with a first cutting edge, a second edge opposite to said first cutting edge, a first lateral edge opposite to a second lateral edge, wherein said plate comprises at least a flat portion (12;112;212) lying on a first plane, which plane has a first face opposite to a second face, and a contoured portion that extends on a plane different from said first plane, said contoured portion comprising a plurality of tracts (14A,14B) that protrude with respect to the first plane for forming a plurality of inlets (24,26,28), characterized in that each protruding tract comprises in cross section, beginning from the first plane and arranged in series with each other, a constriction (34,36,38), an enlargement and an extremal point (44,46,48;144,146,148;244,246,248;344,346;444,446,448) so that to create undercuts.
Structure of a machine for cooking snacks in a salt bath, comprising: - a load-bearing frame; - a mixing drum, comprising a tubular body extending along a main axis, an inlet mouth, an outlet mouth and a feed screw, inside said tubular body extending between said inlet mouth and said outlet mouth, said feed screw being configured to force a plurality of elements placed inside said tubular body to advance from said inlet mouth towards said outlet mouth; - a containment jacket, which is configured to enclose said mixing drum and is integral with it; - a recirculation gap defined between said mixing drum and said containment jacket; - a sieving zone defined within said containment jacket for separating said elements, inside said tubular body, from a bath of granular material in which said elements are immersed; - heating means configured to heat said bath of granular material; - motor drive means for continuously rotating said containment jacket and said mixing drum integral with it; - said mixing drum, said containment jacket and said recirculation gap being coaxial with respect to said main axis, at said inlet mouth being present transfer means configured to move said granular material from said recirculation gap into said mixing drum, characterised in that said main axis is tilted with respect to a reference horizontal plane, with said outlet mouth which is placed at a height above the ground which is greater than a corresponding height above the ground of said inlet mouth. - a load-bearing frame; - a mixing drum, comprising a tubular body extending along a main axis, an inlet mouth, an outlet mouth and a feed screw, inside said tubular body extending between said inlet mouth and said outlet mouth, said feed screw being configured to force a plurality of elements placed inside said tubular body to advance from said inlet mouth towards said outlet mouth; - a containment jacket, which is configured to enclose said mixing drum and is integral with it; - a recirculation gap defined between said mixing drum and said containment jacket; - a sieving zone defined within said containment jacket for separating said elements, inside said tubular body, from a bath of granular material in which said elements are immersed; - heating means configured to heat said bath of granular material; - motor drive means for continuously rotating said containment jacket and said mixing drum integral with it; - said mixing drum, said containment jacket and said recirculation gap being coaxial with respect to said main axis, at said inlet mouth being present transfer means configured to move said granular material from said recirculation gap into said mixing drum, characterised in that said main axis is tilted with respect to a reference horizontal plane, with said outlet mouth which is placed at a height above the ground which is greater than a corresponding height above the ground of said inlet mouth.
Profile element for arranging on the rear side of a facade panel and for fixing the facade panel on a wall of a building or on a facade support, wherein the profile element is made in one part and has a receiving section, a fixing section and a mounting section, characterized in that the receiving section forms at its free end a receiving space and the fixing section can be positioned relative to the facade panel in such a manner that the mounting section overtops the facade panel and a stepped recess is molded at the free end thereof, recess that can engage, when installed, into the receiving space of another profile element of a facade panel placed above.
A low voltage electromagnetic interference filter of an electric vehicle, said EMI filter comprising: a pair of Y capacitor units (110,140) respectively installed in input and output ends of the low voltage EMI filter; and a normal mode filter and a common mode filter installed between the pair of Y capacitor units (110,140), wherein the pair of Y capacitor units (110,140), the DM and CM filters (120,130) discharge CM and DM noises generated, when the EMI filter is connected to a switched-mode power supply (SMPS), to a GND (earth) step by step and reduce noises of the SMPS; and characterised by a bead installed between a GND end of the SMPS, and the low voltage EMI filter and reducing a noise at the GND end of the SMPS; wherein the EMI filter is disposed between a low voltage battery and the SMPS. a pair of Y capacitor units (110,140) respectively installed in input and output ends of the low voltage EMI filter; and a normal mode filter and a common mode filter installed between the pair of Y capacitor units (110,140), wherein the pair of Y capacitor units (110,140), the DM and CM filters (120,130) discharge CM and DM noises generated, when the EMI filter is connected to a switched-mode power supply (SMPS), to a GND (earth) step by step and reduce noises of the SMPS; and characterised by a bead installed between a GND end of the SMPS, and the low voltage EMI filter and reducing a noise at the GND end of the SMPS; wherein the EMI filter is disposed between a low voltage battery and the SMPS.
A data processing apparatus comprising: means for receiving digital data which is supplied with predetermined copy control data, said predetermined copy control data indicating whether the digital data can be copied not at all, once or an unlimited number of times; plural digital output terminals (22, 24) for outputting the digital data; plural switches (16, 17) arranged between said means for receiving digital data and said plural digital output terminals (22, 24); and control means for controlling output of each of said plural digital output terminals in response to said predetermined copy control data by controlling said switches (16, 17), wherein the control means restricts output of said digital data to only one specified digital output terminal from among said plural digital output terminals if said copy control data indicates that the digital data can be copied not at all or only once. means for receiving digital data which is supplied with predetermined copy control data, said predetermined copy control data indicating whether the digital data can be copied not at all, once or an unlimited number of times; plural digital output terminals (22, 24) for outputting the digital data; plural switches (16, 17) arranged between said means for receiving digital data and said plural digital output terminals (22, 24); and control means for controlling output of each of said plural digital output terminals in response to said predetermined copy control data by controlling said switches (16, 17), wherein the control means restricts output of said digital data to only one specified digital output terminal from among said plural digital output terminals if said copy control data indicates that the digital data can be copied not at all or only once.
A battery system comprising: a battery unit having at least one lithium secondary battery that uses a manganese-based cathode material; and a control unit that is configured to control charging and discharging of the battery unit, characterized in that the control unit is configured to control charging and discharging within a low-degradation voltage range that is set on the basis of a target cell degradation rate. a battery unit having at least one lithium secondary battery that uses a manganese-based cathode material; and a control unit that is configured to control charging and discharging of the battery unit, characterized in that the control unit is configured to control charging and discharging within a low-degradation voltage range that is set on the basis of a target cell degradation rate.
A molecular sieve belonging to the ZSM-48 family of zeolites, wherein the molecular sieve comprises: a silicon oxide to aluminum oxide mole ratio of 40 to 200, at least 70% polytype 6 of the total ZSM-48-type material present in the product, and an additional EUO-type molecular sieve phase in an amount of between 0 and 3.5 percent by weight of the total product; and wherein the molecular sieve has a morphology characterized as polycrystalline aggregates comprising crystallites collectively having an average aspect ratio of between 1 and 5. a silicon oxide to aluminum oxide mole ratio of 40 to 200, at least 70% polytype 6 of the total ZSM-48-type material present in the product, and an additional EUO-type molecular sieve phase in an amount of between 0 and 3.5 percent by weight of the total product; and wherein the molecular sieve has a morphology characterized as polycrystalline aggregates comprising crystallites collectively having an average aspect ratio of between 1 and 5.
An electrochemically active material resulting from substituting a portion of the nickel in a single-phase mixed oxide of nickel and lithium of the LiNiO 2 type, characterized in that the active material satisfies the formula: Li(M 1 (1-a-b-c) Li a M 2 b M 3 c)O 2 in which: 0.02 < a ≤ 0.25; 0 ≤ b < 0.30; 0 ≤ c < 0.30; a + b + c < 0.50; M 3 is at least one element selected from Al, B, and Ga; M 2 is at least one element selected from Mg and Zn; and M 1 = Ni (1-x-y-z) Co x Mn y M 4 z in which M 4 is at least one element selected from Fe, Cu, Ti, Zr, V, Ga, and Si; and 0 ≤ x < 0.70 0.10 ≤ y < 0.55 0 ≤ z < 0.30 0.20 < 1 − x − y − z b + c + z > 0; and in that said active material, regardless of its state of charge, satisfies the following relationship whereby 0.40 < R ≤ 0.61: R = 1 − a − b − c * 3 − n Li / n MA + d ox / 4 − 2 b − 3 c * 2 − b − 2 c in which: n Li is the lithium content expressed in moles; n MA is the sum of the contents of Ni, Mn, Co, and M 4 expressed in moles; and d ox is the overall degree of oxidation of M 1. M 3 is at least one element selected from Al, B, and Ga; M 2 is at least one element selected from Mg and Zn; and M 1 = Ni (1-x-y-z) Co x Mn y M 4 z n Li is the lithium content expressed in moles; n MA is the sum of the contents of Ni, Mn, Co, and M 4 expressed in moles; and d ox is the overall degree of oxidation of M 1.
A lifejacket comprising a back strap, a front piece provided with at least one front buoyancy chamber filled with a buoyancy material, and a neck collar, wherein the at least one front buoyancy chamber and the neck collar are separate members, and wherein a neck opening is provided in an intermediate part of the front piece connecting the neck collar and the at least one front buoyancy chamber, characterised in that the intermediate part is attached to an upper rear part of the at least one front buoyancy chamber and to a lower front part of the neck collar, and a recess is provided in the at least one front buoyancy chamber for accommodating the neck collar in a stowed position of said lifejacket in which the neck collar is folded into said recess.
A method for producing a quartz glass body, comprising the method steps of i.) providing a silica granulate, comprising the following method steps: I. providing a silica powder; II. processing the silica powder to form a silica granulate, wherein the silica granulate has a larger particle diameter than the silica powder; wherein the silica granulate has a particle size distribution D 50 in a range of from 150 to 300 μm; ii.) forming a glass melt from the silica granulate in a furnace, wherein the furnace comprises a melting crucible; and iii.) forming a quartz glass body from at least part of the glass melt; and wherein the melting crucible comprises at least one inlet and at least one outlet; and wherein at least part of the glass melt is removed through the outlet of the melting crucible. i.) providing a silica granulate, comprising the following method steps: I. providing a silica powder; II. processing the silica powder to form a silica granulate, wherein the silica granulate has a larger particle diameter than the silica powder; wherein the silica granulate has a particle size distribution D 50 in a range of from 150 to 300 μm; I. providing a silica powder; II. processing the silica powder to form a silica granulate, wherein the silica granulate has a larger particle diameter than the silica powder; wherein the silica granulate has a particle size distribution D 50 in a range of from 150 to 300 μm; ii.) forming a glass melt from the silica granulate in a furnace, wherein the furnace comprises a melting crucible; and iii.) forming a quartz glass body from at least part of the glass melt; and wherein the melting crucible comprises at least one inlet and at least one outlet; and wherein at least part of the glass melt is removed through the outlet of the melting crucible.
A motor comprising: a stator comprising a terminal; and a casing that houses the stator, wherein the terminal has a rear end portion connected to a stator coil and a distal end portion opposite the rear end portion, and the terminal transmits heat from the stator to the casing; wherein the casing comprises: a casing body housing the stator, wherein the casing body comprises a material having a coefficient of thermal conductivity of at least 1 W/m·k, and further comprises an opening in which the distal end portion of the terminal is disposed, and a casing block disposed in the opening and having an insulating property wherein the casing block comprises a material having a coefficient of thermal conductivity of at least 1 W/m·k, and wherein the casing block comprises a housing part that houses the distal end portion of the terminal wherein heat is transmitted from the stator coil to the casing block via the terminal and to the casing body via the casing block. a stator comprising a terminal; and a casing that houses the stator, wherein the terminal has a rear end portion connected to a stator coil and a distal end portion opposite the rear end portion, and the terminal transmits heat from the stator to the casing; a casing body housing the stator, wherein the casing body comprises a material having a coefficient of thermal conductivity of at least 1 W/m·k, and further comprises an opening in which the distal end portion of the terminal is disposed, and a casing block disposed in the opening and having an insulating property wherein the casing block comprises a material having a coefficient of thermal conductivity of at least 1 W/m·k, and wherein the casing block comprises a housing part that houses the distal end portion of the terminal wherein heat is transmitted from the stator coil to the casing block via the terminal and to the casing body via the casing block.
An universal actuator platform for guiding end effectors in minimally invasive interventions, in which the respective end effector is inserted into a body cavity at an entry point, with a kinematic system comprising at least one interface for attaching at least one end effector, with at least one drive for the kinematic system, and with a drive controller for controlling the drive of the kinematic system, wherein the kinematic system comprises means for being mounted on an operating table or on mounting elements provided thereon, for example on rails, and has a closed design that can be sterilized, characterized in that the kinematic system is designed for tilting the end effector by at least 75° referred to a line extending perpendicular to the plane of the entry point, as well as for moving the tilted end effector by 360° around the line extending perpendicular to the plane of the entry point, that the kinematic system consists at least in a section of a material that is neutral to the medium of an imaging device and/or a device for determining the position and/or orientation, that the kinematic system is manually unlockable or separable, and that the drive controller comprises an input for generating nominal values and is designed for compensating mechanical, electrical or temperature-related disturbance variables in the control of the drive of the kinematic system in that the drive controller forms part of a closed control loop in order to achieve high accuracy and reliability, wherein the positioning of the drive is controlled in said control loop by comparing the actual value, which is delivered by at least one sensor and represents the actual position of the kinematic system, with a nominal value.
A control device for a hybrid vehicle including an internal combustion engine and an electric motor for assisting the internal combustion engine with power, the control device comprising: a first changing unit, which prepares to change an assist amount of the electric motor in response to a first input from a user, and subsequently changes the assist amount of the electric motor in response to a second input from the user; a second changing unit, which prepares to change output power of the internal combustion engine in response to the first input from the user, and subsequently changes the output power of the internal combustion engine in response to the second input from the user; and a first selecting unit, which selects the first changing unit or the second changing unit, based on a number of revolutions of the internal combustion engine or a number of revolutions of the electric motor, characterized in that the first changing unit cancels the second input when a predetermined time has elapsed after receiving the first input. a first changing unit, which prepares to change an assist amount of the electric motor in response to a first input from a user, and subsequently changes the assist amount of the electric motor in response to a second input from the user; a second changing unit, which prepares to change output power of the internal combustion engine in response to the first input from the user, and subsequently changes the output power of the internal combustion engine in response to the second input from the user; and a first selecting unit, which selects the first changing unit or the second changing unit, based on a number of revolutions of the internal combustion engine or a number of revolutions of the electric motor, characterized in that the first changing unit cancels the second input when a predetermined time has elapsed after receiving the first input.
A method of managing neighbour relations between cells, the method comprising the steps of: receiving requests for admission of a neighbour relation; and adding tokens in respect of each request, characterized in that the method further comprises the steps of: removing tokens according to a constant leak rate; and if the number of tokens passes a threshold, determining whether or not to admit the neighbour relation and to create a connection between base stations providing cells in the neighbour relation, the determining being based on evaluated transport costs over the connection and how they meet criteria comprising definitions when to admit the neighbour relation and when to deny it. receiving requests for admission of a neighbour relation; and adding tokens in respect of each request, characterized in that the method further comprises the steps of: removing tokens according to a constant leak rate; and if the number of tokens passes a threshold, determining whether or not to admit the neighbour relation and to create a connection between base stations providing cells in the neighbour relation, the determining being based on evaluated transport costs over the connection and how they meet criteria comprising definitions when to admit the neighbour relation and when to deny it. removing tokens according to a constant leak rate; and if the number of tokens passes a threshold, determining whether or not to admit the neighbour relation and to create a connection between base stations providing cells in the neighbour relation, the determining being based on evaluated transport costs over the connection and how they meet criteria comprising definitions when to admit the neighbour relation and when to deny it.
An integrated wave-absorbing and wave-transparent apparatus, comprising: a wave-transparent structure, comprising a first substrate and a metal patch unit located on opposite surfaces of the first substrate; and a wave-absorbing structure, disposed on the wave-transparent structure and comprising a first wave-absorbing unit and a second wave-absorbing unit that are perpendicular to each other, wherein the first wave-absorbing unit and the second wave-absorbing unit each comprises: a second substrate; and a plurality of metal sections and a plurality of stop-bands that are located on surfaces of the second substrate, wherein the plurality of metal sections and the plurality of stop-bands are connected alternately to form an absorption ring, and the metal patch unit is configured to be perpendicular to each of an absorption ring of the first wave-absorbing unit and an absorption ring of the second wave-absorbing unit. a wave-transparent structure, comprising a first substrate and a metal patch unit located on opposite surfaces of the first substrate; and a wave-absorbing structure, disposed on the wave-transparent structure and comprising a first wave-absorbing unit and a second wave-absorbing unit that are perpendicular to each other, wherein the first wave-absorbing unit and the second wave-absorbing unit each comprises: a second substrate; and a plurality of metal sections and a plurality of stop-bands that are located on surfaces of the second substrate, wherein the plurality of metal sections and the plurality of stop-bands are connected alternately to form an absorption ring, and the metal patch unit is configured to be perpendicular to each of an absorption ring of the first wave-absorbing unit and an absorption ring of the second wave-absorbing unit. a second substrate; and a plurality of metal sections and a plurality of stop-bands that are located on surfaces of the second substrate, wherein the plurality of metal sections and the plurality of stop-bands are connected alternately to form an absorption ring, and the metal patch unit is configured to be perpendicular to each of an absorption ring of the first wave-absorbing unit and an absorption ring of the second wave-absorbing unit.