mhurhangee/ep-ind-claims huggingface dataset:
Cutting tool comprising a tool holder and a cutting element, which is connected to the tool holder, and a cooling device for cooling the cutting element, wherein the cooling device comprises a closed coolant circuit comprising a heat exchanger to which coolant is supplied and from which heated coolant is discharged, a heat conducting element is inserted into the tool holder, and wherein a control system is provided for controlling the temperature of the cutting element to the target temperature range and a pyrometer or a thermocouple is provided for measuring the temperature of the cutting element, the cooling device and a cutting element heating device are integrated into the tool holder in such a way that it is possible to control the temperature of the cutting element to a set temperature range, characterized in that the closed cooling circuit contains a refrigeration machine, the heat exchanger has a heat exchanger housing, which is inserted into a heat exchanger receptacle of the tool holder, in which the coolant in the form of a refrigerant can evaporate, and from which the coolant can be discharged in vapor form, the heat conducting element is not designed as a heat pipe and extends between the cutting element and the heat exchanger housing. the cooling device comprises a closed coolant circuit comprising a heat exchanger to which coolant is supplied and from which heated coolant is discharged, a heat conducting element is inserted into the tool holder, and wherein a control system is provided for controlling the temperature of the cutting element to the target temperature range and a pyrometer or a thermocouple is provided for measuring the temperature of the cutting element, the cooling device and a cutting element heating device are integrated into the tool holder in such a way that it is possible to control the temperature of the cutting element to a set temperature range, characterized in that the closed cooling circuit contains a refrigeration machine, the heat exchanger has a heat exchanger housing, which is inserted into a heat exchanger receptacle of the tool holder, in which the coolant in the form of a refrigerant can evaporate, and from which the coolant can be discharged in vapor form, which is inserted into a heat exchanger receptacle of the tool holder, in which the coolant in the form of a refrigerant can evaporate, and from which the coolant can be discharged in vapor form, the heat conducting element is not designed as a heat pipe and extends between the cutting element and the heat exchanger housing.
Electromechanical cylinder comprising a casing, an actuating rod mounted so as to be able to move longitudinally relative to the casing, an electric motor provided with a rotating rotor shaft, a mechanism for transforming a rotational movement of the rotor shaft of the electric motor into a linear translational movement of the actuating rod, and at least one bearing for guiding the rotor shaft of the electric motor in rotation relative to the casing and for supporting the rotor shaft, wherein the cylinder also comprises a sleeve that is fastened to the casing and inside which is mounted said bearing, and at least one load sensor that is mounted on the sleeve while being offset axially relative to said bearing, characterized in that the casing comprises a tubular main body and a front endplate and a rear endplate that are each mounted at one end of the main body, the actuating rod extending through the front endplate and said bearing being situated axially between the electric motor and the front endplate, wherein the sleeve comprises an axial tubular portion inside which is mounted said bearing and that supports said load sensor, and a radial flange for fastening said sleeve to the casing wherein the flange of the sleeve is gripped axially between the main body and the front endplate of the casing.
A package having a carton for containing a liquid crystal display, at least one cushion disposed at least in a bottom corner of the carton for filling a void between at least one bottom corner of the liquid crystal display and the carton, a receiving space disposed in the cushion, and at least one stand characterised in that the at least one stand is received in the receiving space and is moveable relative to the receiving space, wherein an opening is disposed in the carton to expose the receiving space to allow the stand to be moved out of the carton through the opening; and a stand flap for covering the opening.
A golf ball, comprising: a core; a cover layer, the cover layer substantially surrounding the core; the core being made of a polymer mixture, the polymer mixture comprising a polymer and a modifier; the polymer comprising a highly neutralized polymer; the modifier being selected from the group consisting of process oils, plasticizers, and blends thereof; wherein the modifier is present in the polymer mixture in an amount of from about 1 to about 25 parts by weight per 100 parts by weight of polymer; and wherein the modifier is present in the polymer mixture in a sufficient amount such that the modifier reduces a hardness of the polymer mixture from a first value that is approximately the same as a hardness of the highly neutralized polymer to a second value that is less than the hardness of the highly neutralized polymer. a core; a cover layer, the cover layer substantially surrounding the core; the core being made of a polymer mixture, the polymer mixture comprising a polymer and a modifier; the polymer comprising a highly neutralized polymer; the modifier being selected from the group consisting of process oils, plasticizers, and blends thereof; wherein the modifier is present in the polymer mixture in an amount of from about 1 to about 25 parts by weight per 100 parts by weight of polymer; and wherein the modifier is present in the polymer mixture in a sufficient amount such that the modifier reduces a hardness of the polymer mixture from a first value that is approximately the same as a hardness of the highly neutralized polymer to a second value that is less than the hardness of the highly neutralized polymer.
Injector for a combustion engine, comprising - a pole piece with a penetrating opening, - an armature with a penetrating opening, - a valve needle and - a guiding element with a guiding portion and a penetrating opening, wherein at least the respective penetrating openings (13, 19) of the pole piece and the guiding element are configured to form a portion of a fluid channel for a fluid along a longitudinal axis of the injector, - the valve needle is arranged at least partially inside the penetrating opening of the armature and is configured to be axially moveable along the longitudinal axis to prevent a fluid flow in a closed position of the valve needle and to enable a fluid flow in an opened position of the valve needle, - the guiding element is arranged with the guiding portion at least partially inside the penetrating opening of the pole piece - the guiding portion is in sliding contact with the pole piece so that the guiding element is axially moveable along the longitudinal axis relative to the pole piece - the guiding element comprises a contact surface that abuts an end of the valve needle and is releaseably coupled to the valve needle by means of the contact surface abutting an end of the valve needle to realize a guidance of the valve needle along the longitudinal axis during operation of the injector, characterised in that the contact surface is concavely shaped. - a pole piece with a penetrating opening, - an armature with a penetrating opening, - a valve needle and - a guiding element with a guiding portion and a penetrating opening, wherein at least the respective penetrating openings (13, 19) of the pole piece and the guiding element are configured to form a portion of a fluid channel for a fluid along a longitudinal axis of the injector, - the valve needle is arranged at least partially inside the penetrating opening of the armature and is configured to be axially moveable along the longitudinal axis to prevent a fluid flow in a closed position of the valve needle and to enable a fluid flow in an opened position of the valve needle, - the guiding element is arranged with the guiding portion at least partially inside the penetrating opening of the pole piece - the guiding portion is in sliding contact with the pole piece so that the guiding element is axially moveable along the longitudinal axis relative to the pole piece - the guiding element comprises a contact surface that abuts an end of the valve needle and is releaseably coupled to the valve needle by means of the contact surface abutting an end of the valve needle to realize a guidance of the valve needle along the longitudinal axis during operation of the injector, characterised in that the contact surface is concavely shaped.
A dynamic vibration absorber (100, 200) for reducing steering wheel vibration, the dynamic vibration absorber comprising: a resilient member that includes a resilient member inner surface that defines a center cavity that is configured to receive a steering column of a vehicle that generates vibration that is transferred to a steering wheel via the steering column, the center cavity being substantially coaxial with the steering column when attached thereto, the resilient member including at least one resilient member outer surface that defines a resilient member outer diameter; and a rigid body that engages and is supported by the resilient member characterized in that the rigid body includes at least six degrees of freedom of movement relative to the steering column, the rigid body including a rigid body inner surface that defines a rigid body center cavity that contains the resilient member, wherein the at least six degrees of freedom comprise a forward aft linear direction, a forward aft torsional direction, a longitudinal linear direction, a longitudinal torsional direction, a lateral linear direction and a lateral torsional direction. a resilient member that includes a resilient member inner surface that defines a center cavity that is configured to receive a steering column of a vehicle that generates vibration that is transferred to a steering wheel via the steering column, the center cavity being substantially coaxial with the steering column when attached thereto, the resilient member including at least one resilient member outer surface that defines a resilient member outer diameter; and a rigid body that engages and is supported by the resilient member characterized in that the rigid body includes at least six degrees of freedom of movement relative to the steering column, the rigid body including a rigid body inner surface that defines a rigid body center cavity that contains the resilient member, wherein the at least six degrees of freedom comprise a forward aft linear direction, a forward aft torsional direction, a longitudinal linear direction, a longitudinal torsional direction, a lateral linear direction and a lateral torsional direction.
A one-component pressure-sensitive adhesive composition in the form of an aqueous polymer dispersion comprising at least one pressure-sensitive adhesive polymer formed by emulsion polymerization of (i) at least 60 wt%, based on the sum of the monomers, of at least one soft (meth)acrylic ester monomer which when polymerized as a homopolymer has a glass transition temperature of less than 0°C, (ii) 0.1 to 10 wt%, based on the sum of the monomers, of methacrylic acid, (iii) 0 to 30 wt%, based on the sum of the monomers, of styrene, (iv) optionally further monomers, different from (i) to (iii), where the polymerization takes place in the presence of 0 to 1 part by weight of chain transfer agent per 100 parts by weight of monomers, where if no chain transfer agent is used, the amount of styrene (iii) is at least 5 wt%, where the pressure-sensitive adhesive polymer has a gel content of at least 40 wt%, based on a polymer film produced from the pressure-sensitive adhesive polymer, where the gel content is based at least partly on a reversible crosslinking via metal salts, and the gel content of the pressure-sensitive adhesive polymer that is based on reversible crosslinking via metal salts is at least 10 wt%, where the metal salts which bring about the reversible crosslinking are used in uncoated form, where the gel content may also be based partly on covalent, irreversible crosslinking, and the gel content of the pressure-sensitive adhesive polymer that is based on covalent, irreversible crosslinking is 0 to 50 wt%, where the gel content was determined according to the method disclosed in the description, and where the glass transition temperature of the polymer is less than 0°C, preferably -20°C or less. (i) at least 60 wt%, based on the sum of the monomers, of at least one soft (meth)acrylic ester monomer which when polymerized as a homopolymer has a glass transition temperature of less than 0°C, (ii) 0.1 to 10 wt%, based on the sum of the monomers, of methacrylic acid, (iii) 0 to 30 wt%, based on the sum of the monomers, of styrene, (iv) optionally further monomers, different from (i) to (iii),
An apparatus for chemical separations, comprising: at least two substantially rigid and fluidically connected microfluidic substrates (250-1, 250-2), including a first substrate providing a separation substrate and a second substrate providing a load substrate; the load substrate having a fluid-conducting channel extending from a first aperture to a second aperture wherein a first fitting and a second fitting are each coupled about a respective aperture, the separation substrate having a fluid-conducting channel extending from a first coupler coupled about an aperture of the separation substrate, the separation substrate and the load substrate being coupled to each other via first and second couplers associated with said fittings (320-1; 320-2), said couplers (322-1, 322-2) being formed of a deformable material deformable relative to a material of the separation substrate and a material of the load substrate and being aligned to apertures in said substrates, via alignment fittings (325-1, 325-2; 326-1, 326-2), wherein each of said couplers (322-1, 322-2) has an associated pair of alignment fittings (325-1, 326-1; 325-2, 326-2) with one fitting (325-1, 325-2) on the load substrate's underside and the other fitting (326-1, 326-2) on the separation substrate's top side, and wherein said second coupler provides a channel for passing fluid through the fluid conducting channel of the load substrate to reach the fluid conducting channel of the separation substrate. at least two substantially rigid and fluidically connected microfluidic substrates (250-1, 250-2), including a first substrate providing a separation substrate and a second substrate providing a load substrate; the load substrate having a fluid-conducting channel extending from a first aperture to a second aperture wherein a first fitting and a second fitting are each coupled about a respective aperture, the separation substrate having a fluid-conducting channel extending from a first coupler coupled about an aperture of the separation substrate, the separation substrate and the load substrate being coupled to each other via first and second couplers associated with said fittings (320-1; 320-2), said couplers (322-1, 322-2) being formed of a deformable material deformable relative to a material of the separation substrate and a material of the load substrate and being aligned to apertures in said substrates, via alignment fittings (325-1, 325-2; 326-1, 326-2), wherein each of said couplers (322-1, 322-2) has an associated pair of alignment fittings (325-1, 326-1; 325-2, 326-2) with one fitting (325-1, 325-2) on the load substrate's underside and the other fitting (326-1, 326-2) on the separation substrate's top side, and wherein said second coupler provides a channel for passing fluid through the fluid conducting channel of the load substrate to reach the fluid conducting channel of the separation substrate.
A system, comprising: a spray cap configured to couple to a spray tool, wherein the spray cap comprises: a one-piece spray cap body; and a flow control insert body disposed within the one-piece spray cap body; a flow control passage formed in the flow control insert body, wherein the flow control passage comprises a first passage (250, 260) and a second passage (252, 260) downstream from the first passage (250, 260), wherein the first passage (250, 260) comprises a first radial width, the second passage (252, 260) comprises a second radial width, and the second radial width is greater than the first radial width; an expansion chamber extending through the one-piece spray cap body, wherein the expansion chamber is downstream from the flow control passage; and one or more air shaping outlets formed in the one-piece spray cap body, wherein the one or more air shaping outlets are downstream from the expansion chamber. a one-piece spray cap body; and a flow control insert body disposed within the one-piece spray cap body; a flow control passage formed in the flow control insert body, wherein the flow control passage comprises a first passage (250, 260) and a second passage (252, 260) downstream from the first passage (250, 260), wherein the first passage (250, 260) comprises a first radial width, the second passage (252, 260) comprises a second radial width, and the second radial width is greater than the first radial width; an expansion chamber extending through the one-piece spray cap body, wherein the expansion chamber is downstream from the flow control passage; and one or more air shaping outlets formed in the one-piece spray cap body, wherein the one or more air shaping outlets are downstream from the expansion chamber.
A method for controlling a valve (112, 210) for a turbine system, the method comprising: providing a valve (112, 210) comprising an electric motor actuator (113, 117) configured to move a valve member between an open valve position and a closed valve position; moving, by the electric motor actuator (113, 117) and at a first valve closure rate, the valve member away from the open valve position and toward a threshold valve position that is away from the closed valve position to reduce or prevent hard collisions between the valve member and a valve seat under expected operational conditions; measuring, by a position sensor, the valve member position; moving, by the electric motor actuator (113, 117) and at a second valve closure rate, the valve member from the threshold valve position toward the closed valve position, wherein the closed position is a fully closed position, and wherein the second valve closure rate is less than the first valve closure rate, and wherein the threshold valve position is based on a variability in the location of the fully closed valve position relative to the valve member, wherein the variability is determined based on at least one of 1) a collection of manufacturing tolerances for the valve, 2) a collection of coefficients of thermal expansion for the valve, or 3) a collection of wear characteristics for the valve. providing a valve (112, 210) comprising an electric motor actuator (113, 117) configured to move a valve member between an open valve position and a closed valve position; moving, by the electric motor actuator (113, 117) and at a first valve closure rate, the valve member away from the open valve position and toward a threshold valve position that is away from the closed valve position to reduce or prevent hard collisions between the valve member and a valve seat under expected operational conditions; measuring, by a position sensor, the valve member position; moving, by the electric motor actuator (113, 117) and at a second valve closure rate, the valve member from the threshold valve position toward the closed valve position, wherein the closed position is a fully closed position, and wherein the second valve closure rate is less than the first valve closure rate, and wherein the threshold valve position is based on a variability in the location of the fully closed valve position relative to the valve member, wherein the variability is determined based on at least one of 1) a collection of manufacturing tolerances for the valve, 2) a collection of coefficients of thermal expansion for the valve, or 3) a collection of wear characteristics for the valve.
A method, performed by a base station (40-s), for transmitting positioning reference signals, PRSs, in a cell (42-s) served by the base station (40-s), the method comprising: - mapping PRSs onto different groups of time-frequency resources according to different respective positioning reference signal, PRS, patterns, wherein each of the different groups of time-frequency resources spans one or more consecutive subframes in time, wherein the different groups of time-frequency resources are separated in time so as to constitute two individual positioning occasions; and - transmitting the PRSs in the cell in accordance with said mapping; - characterized in that the different PRS patterns of the respective groups of time-frequency resources are frequency shifted relative to one another. - mapping PRSs onto different groups of time-frequency resources according to different respective positioning reference signal, PRS, patterns, wherein each of the different groups of time-frequency resources spans one or more consecutive subframes in time, wherein the different groups of time-frequency resources are separated in time so as to constitute two individual positioning occasions; and - transmitting the PRSs in the cell in accordance with said mapping; - characterized in that the different PRS patterns of the respective groups of time-frequency resources are frequency shifted relative to one another.
A communication control device (1A, 1B) comprising: an antenna; and a control unit for controlling wireless communication related to wireless power transfer to a power receiver device through a power transmitter device, wherein the control unit is configured to acquire via the antenna a radio wave status of each of a plurality of channels related to the wireless communication, acquire a power transmission status of the wireless power transfer, set, based on the acquired power transmission status, switching conditions for switching the channel according to the radio wave status, cause the channel to be switched based on the radio wave status and the switching conditions, and cause the wireless communication to continue on the switched channel. an antenna; and a control unit for controlling wireless communication related to wireless power transfer to a power receiver device through a power transmitter device, wherein the control unit is configured to acquire via the antenna a radio wave status of each of a plurality of channels related to the wireless communication, acquire a power transmission status of the wireless power transfer, set, based on the acquired power transmission status, switching conditions for switching the channel according to the radio wave status, cause the channel to be switched based on the radio wave status and the switching conditions, and cause the wireless communication to continue on the switched channel.
A sealing glass composition, comprising: 10 to 35% by weight of SiO 2, 3 to 35% by weight of B 2 O 3, 30 to 65% by weight of BaO, 0.1 to 15% by weight of CaO, 0.1 to 3% by weight of NiO, and 0.1 to 3% by weight of CuO. 10 to 35% by weight of SiO 2, 3 to 35% by weight of B 2 O 3, 30 to 65% by weight of BaO, 0.1 to 15% by weight of CaO, 0.1 to 3% by weight of NiO, and 0.1 to 3% by weight of CuO.