mhurhangee/ep-ind-claims huggingface dataset:
An ophthalmologic apparatus comprising: eye information obtaining portions, each of the eye information obtaining portions corresponding to each of subject eyes of a subject and configured to obtain information on each of the subject eyes; imaging portions, each of the imaging portions corresponding to each of the eye information obtaining portions and configured to capture a subject eye image of each of the subject eyes; a reference calculator configured to obtain a three-dimensional reference position (Pb) in each of the subject eye images captured by each of the imaging portions; an inclination calculator configured to obtain inclination information (Is) indicating inclination of relative positions of the subject eyes from the obtained three-dimensional reference positions (Pb) in the subject eye images; and a notification portion configured to notify the obtained inclination information (Is). eye information obtaining portions, each of the eye information obtaining portions corresponding to each of subject eyes of a subject and configured to obtain information on each of the subject eyes; imaging portions, each of the imaging portions corresponding to each of the eye information obtaining portions and configured to capture a subject eye image of each of the subject eyes; a reference calculator configured to obtain a three-dimensional reference position (Pb) in each of the subject eye images captured by each of the imaging portions; an inclination calculator configured to obtain inclination information (Is) indicating inclination of relative positions of the subject eyes from the obtained three-dimensional reference positions (Pb) in the subject eye images; and a notification portion configured to notify the obtained inclination information (Is).
A memory comprising: one or more first integrated circuits including a first dynamic random access memory, DRAM, that comprises a main DRAM (16A-16D); and a second integrated circuit coupled to the one or more first integrated circuits in a stack, wherein the second integrated circuit includes a second DRAM that comprises a cache DRAM and further includes a first physical layer circuit configured to communicate on behalf of the first DRAM and the second DRAM with a memory controller on a third integrated circuit via a second physical layer circuit, and wherein the first DRAM and the second DRAM are controlled independently through the first physical layer circuit and the second physical layer circuit by a first control block and a second control block, respectively, in the memory controller even though the first control block and the second control block communicate with the first DRAM and the second DRAM by sharing the second physical layer circuit and the first physical layer circuit, and wherein the second integrated circuit comprises logic configured to decode operations that are bound for the first DRAM and further configured to transport the decoded operations to the first DRAM through a third physical layer circuit in the second integrated circuit and a fourth physical layer circuit in one of the first one or more integrated circuits, wherein the first DRAM has a higher density, a lower bandwidth, a lower energy efficiency and a longer latency than those of the second DRAM. one or more first integrated circuits including a first dynamic random access memory, DRAM, that comprises a main DRAM (16A-16D); and a second integrated circuit coupled to the one or more first integrated circuits in a stack, wherein the second integrated circuit includes a second DRAM that comprises a cache DRAM and further includes a first physical layer circuit configured to communicate on behalf of the first DRAM and the second DRAM with a memory controller on a third integrated circuit via a second physical layer circuit, and wherein the first DRAM and the second DRAM are controlled independently through the first physical layer circuit and the second physical layer circuit by a first control block and a second control block, respectively, in the memory controller even though the first control block and the second control block communicate with the first DRAM and the second DRAM by sharing the second physical layer circuit and the first physical layer circuit, and wherein the second integrated circuit comprises logic configured to decode operations that are bound for the first DRAM and further configured to transport the decoded operations to the first DRAM through a third physical layer circuit in the second integrated circuit and a fourth physical layer circuit in one of the first one or more integrated circuits, wherein the first DRAM has a higher density, a lower bandwidth, a lower energy efficiency and a longer latency than those of the second DRAM.
A method of wireless communications by a victim base station, BS, comprising: detecting interference from one or more aggressor BSs; transmitting distinguishable victim reference signals, RSs; monitoring for distinguishable aggressor RSs from the aggressor BSs; and determining to stop transmitting one or more of the distinguishable victim RSs based on the monitoring; and further comprising: determining that at least one of the aggressor BSs has not received a corresponding one of the distinguishable victim RSs if a corresponding distinguishable aggressor RS is not received; and in response, retransmitting the corresponding distinguishable victim RS using a coverage extension mechanism. detecting interference from one or more aggressor BSs; transmitting distinguishable victim reference signals, RSs; monitoring for distinguishable aggressor RSs from the aggressor BSs; and determining to stop transmitting one or more of the distinguishable victim RSs based on the monitoring; and determining that at least one of the aggressor BSs has not received a corresponding one of the distinguishable victim RSs if a corresponding distinguishable aggressor RS is not received; and in response, retransmitting the corresponding distinguishable victim RS using a coverage extension mechanism.
A method for communicating between a network and a mobile terminal, the method comprising: the mobile terminal receiving a message from the network for announcing a service; wherein the message includes an attribute for identifying whether the service is to be received according to a single frequency network, SFN, mode, facilitating reception of the service according to the SFN mode if the attribute identifies that the service is to be received according to the SFN mode; determining not to facilitate reception of the service according to the SFN mode if the attribute identifies that the service is to be received according to a mode different from the SFN mode; and facilitating reception according to the mode different from the SFN mode if the attribute identifies that the service is to be received according to the mode different from the SFN mode; wherein: - the SFN mode is a mode in which information is communicated on a frequency having no associated uplink service, - the SFN mode combines signals from multiple cells, - the attribute is included in the message according to a session description protocol, SDP, describing the service, - the attribute included in the message is a signaling attribute identified at a session level, - the attribute identified at the session level is followed by zero or more media level sections, - the attribute identified at the session level is applied to all media, and - the attribute is an 'X-mbsfn-mode' indicating that the service is to be received according to the SFN mode. the mobile terminal receiving a message from the network for announcing a service; wherein the message includes an attribute for identifying whether the service is to be received according to a single frequency network, SFN, mode, facilitating reception of the service according to the SFN mode if the attribute identifies that the service is to be received according to the SFN mode; determining not to facilitate reception of the service according to the SFN mode if the attribute identifies that the service is to be received according to a mode different from the SFN mode; and facilitating reception according to the mode different from the SFN mode if the attribute identifies that the service is to be received according to the mode different from the SFN mode; - the SFN mode is a mode in which information is communicated on a frequency having no associated uplink service, - the SFN mode combines signals from multiple cells, - the attribute is included in the message according to a session description protocol, SDP, describing the service, - the attribute included in the message is a signaling attribute identified at a session level, - the attribute identified at the session level is followed by zero or more media level sections, - the attribute identified at the session level is applied to all media, and - the attribute is an 'X-mbsfn-mode' indicating that the service is to be received according to the SFN mode.
A vacuum pump comprising a regenerative pumping mechanism and a drag pumping mechanism, the regenerative pumping mechanism comprising a generally disc-shaped member mounted on an axial shaft for rotation relative to a stator of the regenerative pumping mechanism, the drag pumping mechanism comprising a generally cylindrical-shaped member mounted at an outer circumferential portion of the disc-shaped member for rotation about the axial shaft relative to a stator (20, 26) of the drag pumping mechanism, rotation of the disc-shaped member and the cylindrical-shaped member by the axial shaft causing fluid to flow radially inwardly in series through the drag pumping mechanism and the regenerative pumping mechanism, characterised in that the generally disc-shaped member comprises rotor formations on opposing sides thereof co-operable with complementary portions of the stator of the regenerative pumping mechanism for pumping fluid along parallel fluid flow paths on said opposed sides.
A system comprising: a plurality of processors (204, 224); a first operating system operable on at least a first processor of said plurality of processors; a second operating system operable on at least a second processor of said plurality of processors; said first operating system and said second operating system arranged to operate simultaneously on said system; said first operating system having a first memory allocation such that said first operating system directly addresses a first memory range of a shared memory; said second operating system having a second memory allocation such that said second operating system directly addresses a second memory range of the shared memory, said first memory range and said second memory range not overlapping; wherein the system is configured to load the first operating system, the first operating system configured to limit its access to the first memory range and allocate resources including memory locations for the second operating system; and wherein the system is configured, after the first operating system begins execution, to invoke a boot loader to load the second operating system, the second operating system configured to accept input parameters defining the second memory range from the boot loader. a plurality of processors (204, 224); a first operating system operable on at least a first processor of said plurality of processors; a second operating system operable on at least a second processor of said plurality of processors; said first operating system and said second operating system arranged to operate simultaneously on said system; said first operating system having a first memory allocation such that said first operating system directly addresses a first memory range of a shared memory; said second operating system having a second memory allocation such that said second operating system directly addresses a second memory range of the shared memory, said first memory range and said second memory range not overlapping; wherein the system is configured to load the first operating system, the first operating system configured to limit its access to the first memory range and allocate resources including memory locations for the second operating system; and wherein the system is configured, after the first operating system begins execution, to invoke a boot loader to load the second operating system, the second operating system configured to accept input parameters defining the second memory range from the boot loader.
A thermosensitive recording material comprising: a support, an under layer laid over the support, the under layer containing plastic hollow particles, a thermosensitive color-developing layer laid over the under layer, the thermosensitive color-developing layer containing a leuco dye and a developer, and a protective layer having a two-layered structure over the thermosensitive color-developing layer, with a first protective layer containing a water-soluble resin and a crosslinking agent, and a second protective layer containing a water-soluble resin, a crosslinking agent and a pigment, respectively, wherein each of the water-soluble resins is a modified polyvinyl alcohol selected from the group consisting of an itaconic acid-modified polyvinyl alcohol, a maleic acid-modified polyvinyl alcohol and an acetoacetyl-modified polyvinyl alcohol, wherein two or more layers including the thermosensitive color-developing layer are obtained through simultaneous coating by a curtain coating method, and wherein the thermosensitive recording material contains silicone resin particlesin an uppermost layer thereof. a support, an under layer laid over the support, the under layer containing plastic hollow particles, a thermosensitive color-developing layer laid over the under layer, the thermosensitive color-developing layer containing a leuco dye and a developer, and a protective layer having a two-layered structure over the thermosensitive color-developing layer, with a first protective layer containing a water-soluble resin and a crosslinking agent, and a second protective layer containing a water-soluble resin, a crosslinking agent and a pigment, respectively, wherein each of the water-soluble resins is a modified polyvinyl alcohol selected from the group consisting of an itaconic acid-modified polyvinyl alcohol, a maleic acid-modified polyvinyl alcohol and an acetoacetyl-modified polyvinyl alcohol, wherein two or more layers including the thermosensitive color-developing layer are obtained through simultaneous coating by a curtain coating method, and wherein the thermosensitive recording material contains silicone resin particlesin an uppermost layer thereof.
A planetary rotation fluidized apparatus for nanoparticle atomic layer deposition, comprising a motor, a reaction chamber, a planet carrier, a cartridge, and multiple gas manifolds; wherein said motor is connected to said planet carrier, said center wheel and multiple planet wheels are disposed on said planet carrier, said center wheel is disposed on a center line of said planet carrier with said center wheel,said cartridge and said planet wheel being installed onto said planet carrier, said center wheel is positioned on the same axis with said planet carrier, and engaged with said planet wheel, rotation of said center wheel and said planet wheel is driven by said motor; said cartridge is disposed in said reaction chamber, and operates to carry powder; said cartridge is connected to said planet wheel, and rotates with said planet wheel; said gas manifolds operate to inject reaction gas or carrier gas into said reaction chamber; a heating device is disposed between inner wall of said reaction chamber and outer wall thereof, and operates to heat said reaction chamber; and said reaction chamber is connected to a vacuum pump, and said vacuum pump operates to exhaust the air, precursor or byproduct gas inside said reaction chamber.
A heat transfer press comprises: a base; a handle pivotally coupled to the base; a controller integrally formed with the handle; a lower platen connected to the base; and an upper platen, wherein a surface (S 22) of the upper platen is in contact with a surface (S 20) of the lower platen in a first position, and the surface (S 22) of the upper platen is separated from the surface (S 20) of the lower platen in a second position, characterized in, that the heat press further comprises: a heater arm pivotally coupled to the base; a pressure link pivotally coupled to the handle and the heater arm, wherein the upper platen is connected to the heater arm. a base; a handle pivotally coupled to the base; a controller integrally formed with the handle; a lower platen connected to the base; and an upper platen, wherein a surface (S 22) of the upper platen is in contact with a surface (S 20) of the lower platen in a first position, and the surface (S 22) of the upper platen is separated from the surface (S 20) of the lower platen in a second position, characterized in, that the heat press further comprises: a heater arm pivotally coupled to the base; a pressure link pivotally coupled to the handle and the heater arm, wherein the upper platen is connected to the heater arm. a heater arm pivotally coupled to the base; a pressure link pivotally coupled to the handle and the heater arm, wherein the upper platen is connected to the heater arm.
Method for determining a parameter of an optical equipment, the method comprising: - an optical equipment positioning step, during which an optical equipment comprising a pair of optical lenses mounted on a spectacle frame is positioned in a first position, - a portable electronic device positioning step, during which a portable electronic device comprising an image acquisition module is positioned in a second position determined and/or known relatively to the first position, the portable electronic device further comprising a screen to show a pattern, - a light reflecting element positioning step, wherein a light reflecting element is positioned and configured to reflect the pattern displayed on the screen of the portable electronic device so that an image of the pattern is acquired by the image acquisition module of the portable electronic device through at least part of the optical lenses of the optical equipment and the pattern is deformed twice by the optical equipment, - a parameter determining step, during which at least one optical parameter of the optical equipment is determined based on the image of the pattern seen through at least part of the optical lenses of the optical equipment in the first position. - an optical equipment positioning step, during which an optical equipment comprising a pair of optical lenses mounted on a spectacle frame is positioned in a first position, - a portable electronic device positioning step, during which a portable electronic device comprising an image acquisition module is positioned in a second position determined and/or known relatively to the first position, the portable electronic device further comprising a screen to show a pattern, - a light reflecting element positioning step, wherein a light reflecting element is positioned and configured to reflect the pattern displayed on the screen of the portable electronic device so that an image of the pattern is acquired by the image acquisition module of the portable electronic device through at least part of the optical lenses of the optical equipment and the pattern is deformed twice by the optical equipment, - a parameter determining step, during which at least one optical parameter of the optical equipment is determined based on the image of the pattern seen through at least part of the optical lenses of the optical equipment in the first position.
An engine cooling system for a vehicle in which a plurality of combustion chambers is formed from a front side to a rear side of an engine and for cooling the engine including a cylinder block to which a cylinder head is mounted upwards thereof, comprising: a head water jacket formed inside the cylinder head; a block water jacket formed around the combustion chambers inside the cylinder block; a gasket disposed between the block water jacket and the head water jacket and sealing between the cylinder block and the cylinder head; a pump water jacket connected to the block water jacket inside the cylinder block by corresponding to a water pump mounted on a front side of the cylinder block to pump a coolant to a front side of the block water jacket; first and second connection passages (42, 44) formed at a front upper portion of the block water jacket, connected to a front lower portion of the head water jacket, and supplying the coolant supplied to the block water jacket to the head water jacket; a first packing member mounted on an intake side in the front side of the block water jacket and preventing the coolant flowing to the front side of the block water jacket from inflowing to the intake side; and a second packing member mounted on an exhaust side in a rear side of the block water jacket, characterized in that: the second packing member is formed with a length shorter than the first packing member, to limit a flow rate of the coolant flowing along the exhaust side of the block water jacket. a head water jacket formed inside the cylinder head; a block water jacket formed around the combustion chambers inside the cylinder block; a gasket disposed between the block water jacket and the head water jacket and sealing between the cylinder block and the cylinder head; a pump water jacket connected to the block water jacket inside the cylinder block by corresponding to a water pump mounted on a front side of the cylinder block to pump a coolant to a front side of the block water jacket; first and second connection passages (42, 44) formed at a front upper portion of the block water jacket, connected to a front lower portion of the head water jacket, and supplying the coolant supplied to the block water jacket to the head water jacket; a first packing member mounted on an intake side in the front side of the block water jacket and preventing the coolant flowing to the front side of the block water jacket from inflowing to the intake side; and a second packing member mounted on an exhaust side in a rear side of the block water jacket, characterized in that: the second packing member is formed with a length shorter than the first packing member, to limit a flow rate of the coolant flowing along the exhaust side of the block water jacket.
A damper comprising: a cylinder; a shaft inserted in the cylinder; a coil disposed inside the cylinder and surrounding the shaft; a yoke (53, 54) disposed inside the cylinder so as to be located at both axial ends of the coil and being configured to form a magnetic circuit with the shaft and the cylinder; and a magnetic viscous fluid filled between the yokes, the coil, and the shaft; characterised in that a seal (56, 57) is disposed inside the cylinder so as to be located axially outside each of the yokes, the seal being configured to trap the magnetic viscous fluid between the yokes, the coil, and the shaft; and wherein a bearing (59, 60) is disposed axially outside each of the seals, the bearing being configured to support the shaft so as to be axially and relatively reciprocable. a cylinder; a shaft inserted in the cylinder; a coil disposed inside the cylinder and surrounding the shaft; a yoke (53, 54) disposed inside the cylinder so as to be located at both axial ends of the coil and being configured to form a magnetic circuit with the shaft and the cylinder; and a magnetic viscous fluid filled between the yokes, the coil, and the shaft; characterised in that a seal (56, 57) is disposed inside the cylinder so as to be located axially outside each of the yokes, the seal being configured to trap the magnetic viscous fluid between the yokes, the coil, and the shaft; and wherein a bearing (59, 60) is disposed axially outside each of the seals, the bearing being configured to support the shaft so as to be axially and relatively reciprocable.