mhurhangee/ep-ind-claims huggingface dataset:
An electrophoretic display device (10; 10a), comprising: a first substrate; a second substrate disposed to face the first substrate; a molecule X arranged on the second substrate; and an electrophoretic dispersion liquid comprising electrophoretic particles and a dispersion medium, wherein the electrophoretic dispersion liquid is disposed between the first substrate and the molecule X, wherein the molecule X comprises an aromatic ring having a cyclic structure, and the aromatic ring comprises any one of benzene, toluene, xylene, mesitylene, pyridine, pyrrole, thiophene, acetophenone, aniline, anisole, benzaldehyde, benzyl alcohol, benzylamine, fluorobenzene, bromobenzene, dibromobenzene, chlorobenzene, dichlorobenzene, phenol, furfural, bromoaniline, nitrobenzene, nitrotoluene, toluidine, naphthalene, anthracene, naphthacene, pentacene, benzopyrene, chrysene, pyrene, triphenylene, corannulene, coronene, and ovalene, the electrophoretic display device (10; 10a) being characterized in that: the molecule X is arranged on the second substrate at a ratio of from 1 molecule/10 nm 2 to 10 molecules/10 nm 2; the electrophoretic particles also comprise the molecule X; and the weight fraction of the molecule X included in the electrophoretic particles is from 20% to 80%. a first substrate; a second substrate disposed to face the first substrate; a molecule X arranged on the second substrate; and an electrophoretic dispersion liquid comprising electrophoretic particles and a dispersion medium, wherein the electrophoretic dispersion liquid is disposed between the first substrate and the molecule X, wherein the molecule X comprises an aromatic ring having a cyclic structure, and the aromatic ring comprises any one of benzene, toluene, xylene, mesitylene, pyridine, pyrrole, thiophene, acetophenone, aniline, anisole, benzaldehyde, benzyl alcohol, benzylamine, fluorobenzene, bromobenzene, dibromobenzene, chlorobenzene, dichlorobenzene, phenol, furfural, bromoaniline, nitrobenzene, nitrotoluene, toluidine, naphthalene, anthracene, naphthacene, pentacene, benzopyrene, chrysene, pyrene, triphenylene, corannulene, coronene, and ovalene, the electrophoretic display device (10; 10a) being characterized in that: the molecule X is arranged on the second substrate at a ratio of from 1 molecule/10 nm 2 to 10 molecules/10 nm 2; the electrophoretic particles also comprise the molecule X; and the weight fraction of the molecule X included in the electrophoretic particles is from 20% to 80%. the molecule X is arranged on the second substrate at a ratio of from 1 molecule/10 nm 2 to 10 molecules/10 nm 2; the electrophoretic particles also comprise the molecule X; and the weight fraction of the molecule X included in the electrophoretic particles is from 20% to 80%.
A polymerisation reactor comprising one or more circulation loops with one or more inlets for raw material, one or more outlets, driving means for circulating a reactor charge within the circulation loop, and a pig station for storing, launching, and receiving cleaning pigs, characterised in that the pig station comprises a lid to cover an opening enabling removal of the cleaning pig, a box with a cylindrical bore connected at both ends to the circulation loop, the bore having a central part with a diameter which is larger than the inner diameter of the circulation loop, in a transitional part at the outer ends of the bore the bore diameter narrows down to be equal to the inner tube diameter of the circulation loop and in that for at least a part of the inner bore half of the circular cross-section is formed in the removable lid.
Floor element for a loading deck of an aircraft, constructed in the form of a hollow profile having a cover plate and a base plate which are connected to one another by webs (13 to 16), the hollow profile being at least in some regions constructed as a conduit for the passage of fluids and/or gases, characterised in that the base plate, together with webs (13, 14) that terminate the edges, forms a fluid-tight trough for capturing any fluids that accumulate, which trough is attached to the cover plate.
An integrated circuit, comprising: a front end unit; and circuitry coupled to the front end unit, the circuitry is configured to: identify an entry in an exclusively multiple-taken-branch prediction table that corresponds to a conditional branch instruction, determine if a confidence level of the entry exceeds a threshold confidence level, and, if so determined, provide exclusively multiple taken branch predictions that stem from the conditional branch instruction from the entry in the multiple-taken-branch prediction table, and cancel a main Branch Prediction Unit, BPU, lookup and cancel a branch target buffer, BTB, lookup. a front end unit; and circuitry coupled to the front end unit, the circuitry is configured to: identify an entry in an exclusively multiple-taken-branch prediction table that corresponds to a conditional branch instruction, determine if a confidence level of the entry exceeds a threshold confidence level, and, if so determined, provide exclusively multiple taken branch predictions that stem from the conditional branch instruction from the entry in the multiple-taken-branch prediction table, and cancel a main Branch Prediction Unit, BPU, lookup and cancel a branch target buffer, BTB, lookup. identify an entry in an exclusively multiple-taken-branch prediction table that corresponds to a conditional branch instruction, determine if a confidence level of the entry exceeds a threshold confidence level, and, if so determined, provide exclusively multiple taken branch predictions that stem from the conditional branch instruction from the entry in the multiple-taken-branch prediction table, and cancel a main Branch Prediction Unit, BPU, lookup and cancel a branch target buffer, BTB, lookup.
A negative electrode active material, comprising: a graphite core; a first carbon coating layer surrounding the outside of the graphite core; and a second carbon coating layer surrounding the outside of the first carbon coating layer, wherein the second carbon coating layer has a lower crystallinity as compared to the first carbon coating layer, or the second carbon coating layer comprises hard carbon and the first carbon coating layer comprises soft carbon. a graphite core; a first carbon coating layer surrounding the outside of the graphite core; and a second carbon coating layer surrounding the outside of the first carbon coating layer, wherein the second carbon coating layer has a lower crystallinity as compared to the first carbon coating layer, or the second carbon coating layer comprises hard carbon and the first carbon coating layer comprises soft carbon.
A method for producing at least a microcarrier, the method comprising the following steps: a) providing a wafer having a sandwich structure comprising a bottom layer, a top first sacrificial layer and an insulating layer located between said bottom and top layers (16, 17); b) structuring the first sacrificial layer to form a first mask delineating a first three dimensional negative pattern; characterized in that it further comprises the steps: c) depositing a first structural layer over the first sacrificial layer so as to form a first three dimensional structure complementary to the first three dimensional negative pattern; d) depositing a second sacrificial layer over the top surface of the first structural layer; e) structuring the second sacrificial layer to define a second mask delineating a second three dimensional negative pattern on the top surface of the first structural layer; f) depositing a second structural layer in the second three dimensional negative pattern so as to form a second three dimensional structure on the upper surface of the first structural layer; g) etching away from above the first and second structural layers down to the insulating layer to delineate lateral walls of bodies of microcarriers, each body comprising at least a first lower and a second upper three dimensional structures; h) etching away the insulating layer, the bottom layer and the sacrificial layers to release the microcarriers. a) providing a wafer having a sandwich structure comprising a bottom layer, a top first sacrificial layer and an insulating layer located between said bottom and top layers (16, 17); b) structuring the first sacrificial layer to form a first mask delineating a first three dimensional negative pattern; c) depositing a first structural layer over the first sacrificial layer so as to form a first three dimensional structure complementary to the first three dimensional negative pattern; d) depositing a second sacrificial layer over the top surface of the first structural layer; e) structuring the second sacrificial layer to define a second mask delineating a second three dimensional negative pattern on the top surface of the first structural layer; f) depositing a second structural layer in the second three dimensional negative pattern so as to form a second three dimensional structure on the upper surface of the first structural layer; g) etching away from above the first and second structural layers down to the insulating layer to delineate lateral walls of bodies of microcarriers, each body comprising at least a first lower and a second upper three dimensional structures; h) etching away the insulating layer, the bottom layer and the sacrificial layers to release the microcarriers.
A method for controlling a ventilation system for the ventilation of an enclosure, the system comprising two or more ventilation units which each selectively and repeatedly can be controlled to establish an air flow to and/or from said enclosure and wherein one or more of said two or more ventilation units comprise heat transferring means for transferring heat energy from air flowing out of the enclosure through said ventilation units to air flowing into the enclosure through said ventilation units or transferring heat energy from air flowing into the enclosure through said ventilation units to air flowing out of the enclosure through said ventilation units, said method comprises the steps of: • determining information regarding operational conditions of one or more of said two or more ventilation units by at least measuring the air flow through said ventilation units or the pressure differential across said ventilation units, • generating operation control data for one or more of the ventilation units from information regarding operational conditions determined for at least one other of said two or more ventilation units, and • controlling the operation of one or more of said two or more ventilation units by applying said generated operation control data. • determining information regarding operational conditions of one or more of said two or more ventilation units by at least measuring the air flow through said ventilation units or the pressure differential across said ventilation units, • generating operation control data for one or more of the ventilation units from information regarding operational conditions determined for at least one other of said two or more ventilation units, and • controlling the operation of one or more of said two or more ventilation units by applying said generated operation control data.
Sewing machine with seam-forming tools, having a needle for guiding an upper thread, and a looper, - wherein the needle is embodied as a curved needle which is pivotable about a needle pivot axis in such a manner that a spacing of the curved needle from the pivot axis is equal to a radius (r) of a curve of the curved needle about the pivot axis; - wherein the looper is embodied as a looper which has a bobbin thread supply and is rotatable about a looper rotation axis; - wherein the looper rotation axis runs parallel to a sewing material support region; - wherein a disposal of the sewing material support region in relation to a motion path of the curved needle is of such a type that the curved needle in the sewing movement along the motion path pierces sewing material to be sewn from a sewing material side, and exits on the same sewing material side again, characterized by - a stitch plate which is associated with the sewing material support region that defines a position of the sewing material relative to the seam-forming tools when sewing abutting edges; - a belt drive for driving the curved needle and the looper; and - a design embodiment of such a type that the sewing material in the form of sewn abutting edges is sewn with the aid of a one-sided double lockstitch. - wherein the needle is embodied as a curved needle which is pivotable about a needle pivot axis in such a manner that a spacing of the curved needle from the pivot axis is equal to a radius (r) of a curve of the curved needle about the pivot axis; - wherein the looper is embodied as a looper which has a bobbin thread supply and is rotatable about a looper rotation axis; - wherein the looper rotation axis runs parallel to a sewing material support region; - wherein a disposal of the sewing material support region in relation to a motion path of the curved needle is of such a type that the curved needle in the sewing movement along the motion path pierces sewing material to be sewn from a sewing material side, and exits on the same sewing material side again, - a stitch plate which is associated with the sewing material support region that defines a position of the sewing material relative to the seam-forming tools when sewing abutting edges; - a belt drive for driving the curved needle and the looper; and - a design embodiment of such a type that the sewing material in the form of sewn abutting edges is sewn with the aid of a one-sided double lockstitch.
An interchangeable lens comprising: a lens barrel; a movable unit configured to be movable along an optical axis with respect to the lens barrel; a plurality of individual-eye lenses configured to be integrally movable with the movable unit and arranged such that emission positions of imaging lights emitted through the respective individual-eye lenses do not overlap with one another; and characterized in that it further comprises one or a plurality of light sources configured to be movable along the optical axis integrally with the movable unit and the plurality of individual-eye lenses, and arranged such that an emission position of an irradiation light emitted to an image sensor provided in a camera body does not overlap with the emission position of the imaging light of each of the plurality of individual-eye lenses. a lens barrel; a movable unit configured to be movable along an optical axis with respect to the lens barrel; a plurality of individual-eye lenses configured to be integrally movable with the movable unit and arranged such that emission positions of imaging lights emitted through the respective individual-eye lenses do not overlap with one another; and characterized in that it further comprises one or a plurality of light sources configured to be movable along the optical axis integrally with the movable unit and the plurality of individual-eye lenses, and arranged such that an emission position of an irradiation light emitted to an image sensor provided in a camera body does not overlap with the emission position of the imaging light of each of the plurality of individual-eye lenses.
Method of modifying a steam turbine, steam being generated by a steam generator, the method enabling the turbine to be adapted to the change from a first maximum thermal power of the steam generator to a second maximum thermal power of the steam generator, the method comprising, providing a turbine with a high-pressure module having; at least one set of fixed blades sized for the first maximum thermal power; at least one set of moving blades sized to operate at the first and second maximum thermal powers; and a rotor, replaying the at least one set of fixed blades sized for the first maximum thermal power with at least one set of fixed blades sized for the second maximum thermal power, while the moving blades remain unchanged on changing from the first maximum thermal power to the second maximum thermal power.
A method for producing an MRI image, in which a radial or spiral k-space trajectory with a constant angular increment Psi is used, characterized in that the angular increment Psi lies in an angular range of 5 to 55 degrees and is calculated according to the formula ψN, M = π N + 1 M + τ − 1 wherein N lies between 3 and 35 and wherein M lies between 1 and 5 and wherein tau is equal to (1+sqrt) / 2. wherein N lies between 3 and 35 and wherein M lies between 1 and 5 and wherein tau is equal to (1+sqrt) / 2.
A method performed by a second SGSN in a communication system comprising a first compact and portable system which includes a first GGSN and a first SGSN, and a second compact and portable system which includes a second GGSN and the second SGSN, where if a mobile station roams from a first radio coverage area supported by said first compact system into a second radio coverage area supported by said second compact system then the second SGSN performs the method comprising the steps of: initiating a PDP context deactivation process which causes the first GGSN to teardown a PDP context associated with the mobile station and also causes the mobile station to deactivate a PDP context associated with the PDP context that was torn down by the first GGSN; and participating in a PDP context activation process where the second GGSN is selected to serve the mobile station and a new PDP context is established with the mobile station and the second GGSN; wherein said step of initiating is triggered after a predetermined amount of time has passed since a timer was started upon completion of a routing area update process which was started when the mobile station roamed into the second radio coverage area supported by said second compact system. initiating a PDP context deactivation process which causes the first GGSN to teardown a PDP context associated with the mobile station and also causes the mobile station to deactivate a PDP context associated with the PDP context that was torn down by the first GGSN; and participating in a PDP context activation process where the second GGSN is selected to serve the mobile station and a new PDP context is established with the mobile station and the second GGSN; wherein said step of initiating is triggered after a predetermined amount of time has passed since a timer was started upon completion of a routing area update process which was started when the mobile station roamed into the second radio coverage area supported by said second compact system.
A network over coaxial cable, the network comprising: a plurality of networked nodes; wherein a transmitter of at least one of the networked nodes is configured to transmit a message comprising a concatenated burst, said concatenated burst comprising: a preamble; a first payload; and a second payload wherein the first payload and the second payload are separated by a cyclic prefix (210, 306) of a first symbol of the second payload, wherein the cyclic prefix is a copy of a predetermined number of last samples of the second payload. a plurality of networked nodes; wherein a transmitter of at least one of the networked nodes is configured to transmit a message comprising a concatenated burst, said concatenated burst comprising: a preamble; a first payload; and a second payload wherein the first payload and the second payload are separated by a cyclic prefix (210, 306) of a first symbol of the second payload, wherein the cyclic prefix is a copy of a predetermined number of last samples of the second payload. a preamble; a first payload; and a second payload wherein the first payload and the second payload are separated by a cyclic prefix (210, 306) of a first symbol of the second payload, wherein the cyclic prefix is a copy of a predetermined number of last samples of the second payload.
A steel sheet for an oil sand slurry pipe having excellent abrasion resistance, corrosion resistance, and low-temperature toughness, the steel sheet comprising: 0.2 wt% to 0.35 wt% of carbon; 0.1 wt% to 0.5 wt% of silicon (Si); 0.5 wt% to 1.8 wt% of manganese (Mn); 0.1 wt% to 0.6 wt% of nickel (Ni); 0.005 wt% to 0.05 wt% of niobium (Nb); 0.005 wt% to 0.02 wt% of titanium (Ti); 0.03 wt% or less of phosphorous; 0.03 wt% or less of sulfur; 0.05 wt% or less (excluding 0 wt%) of aluminum (Al); 0.01 wt% or less (excluding 0 wt%) of nitrogen; and optionally 0.1 wt% to 1.0 wt% or less of chromium (Cr); iron (Fe) as well as unavoidable impurities as a remainder, wherein a microstructure of the steel sheet is composed of 50 area% to 80 area% of pearlite and ferrite as a remainder. 0.2 wt% to 0.35 wt% of carbon; 0.1 wt% to 0.5 wt% of silicon (Si); 0.5 wt% to 1.8 wt% of manganese (Mn); 0.1 wt% to 0.6 wt% of nickel (Ni); 0.005 wt% to 0.05 wt% of niobium (Nb); 0.005 wt% to 0.02 wt% of titanium (Ti); 0.03 wt% or less of phosphorous; 0.03 wt% or less of sulfur; 0.05 wt% or less (excluding 0 wt%) of aluminum (Al); 0.01 wt% or less (excluding 0 wt%) of nitrogen; and optionally 0.1 wt% to 1.0 wt% or less of chromium (Cr);
A mattress package, comprising: a plurality of core rolls (101, 102, 103) formed by rolling up core segments (101', 102', 103'), wherein a mattress core is formed by assembling the core segments; a covering roll formed by rolling up a cover material configured for covering the mattress core; and a box containing the plurality of core rolls (101, 102, 103) and the covering roll. a plurality of core rolls (101, 102, 103) formed by rolling up core segments (101', 102', 103'), wherein a mattress core is formed by assembling the core segments; a covering roll formed by rolling up a cover material configured for covering the mattress core; and a box containing the plurality of core rolls (101, 102, 103) and the covering roll.
A composition for use for treating stroke, traumatic brain injury or spinal cord injury in a subject, preferably a human, having had a stroke, TBI or SCI, wherein the composition comprises a pharmaceutically acceptable excipient and a fragment of SEQ ID NO: 1, said fragment consisting of SEQ ID NO: 2.
An encoding method for a traffic indication map, characterized by the step of: controlling whether to display a sub-block bitmap display field in a sub-bitmap in a traffic indication map by marking at least one bit in a bitmap control field in the traffic indication map, a sub-block sub-bitmap in the sub-bitmap being used for enabling a user terminal to know whether there are data cached in an access point, or enabling the user terminal to know whether to access to a channel, and the sub-block bitmap display field being used for controlling the sub-block sub-bitmap to hide bytes which are all zero in the sub-block sub-bitmap. controlling whether to display a sub-block bitmap display field in a sub-bitmap in a traffic indication map by marking at least one bit in a bitmap control field in the traffic indication map, a sub-block sub-bitmap in the sub-bitmap being used for enabling a user terminal to know whether there are data cached in an access point, or enabling the user terminal to know whether to access to a channel, and the sub-block bitmap display field being used for controlling the sub-block sub-bitmap to hide bytes which are all zero in the sub-block sub-bitmap.