mhurhangee/ep-ind-claims huggingface dataset:
An operation planning method for generating an operation plan for a plurality of air conditioners for each of a plurality of zones in a room, the plurality of air conditioners and the plurality of zones being associated with each other, the operation planning method characterized by comprising: a step of acquiring operation result data indicating operation results of the plurality of air conditioners; a step of acquiring schedule data in which a schedule of a meeting is registered and a number of participants in the meeting; a step of determining, based on the schedule data and the operation result data, a zone where the scheduled meeting registered in the schedule data is held; a step of determining, based on the number of participants in the meeting held in the determined zone, whether an operation state of the air conditioner associated with the determined zone is set to an energy saving operation state in which power consumption of the air conditioner is reduced or a normal operation state in which the power consumption is not reduced; a step of generating parameters for controlling the air conditioner, the parameters corresponding to the determined operation state; and a step of transmitting the generated parameters to the air conditioner associated with the determined zone. a step of acquiring operation result data indicating operation results of the plurality of air conditioners; a step of acquiring schedule data in which a schedule of a meeting is registered and a number of participants in the meeting; a step of determining, based on the schedule data and the operation result data, a zone where the scheduled meeting registered in the schedule data is held; a step of determining, based on the number of participants in the meeting held in the determined zone, whether an operation state of the air conditioner associated with the determined zone is set to an energy saving operation state in which power consumption of the air conditioner is reduced or a normal operation state in which the power consumption is not reduced; a step of generating parameters for controlling the air conditioner, the parameters corresponding to the determined operation state; and a step of transmitting the generated parameters to the air conditioner associated with the determined zone.
A secondary battery (200, 210) comprising: a pouch type battery case and a electrode assembly (40, 40'); wherein the pouch type battery case comprises a space part accommodating an electrode assembly, an upper battery case (30, 30'), a lower battery case (20, 20'), and a sealing part for sealing the upper and lower battery cases (30, 30', 20, 20'), wherein each of the upper battery case (30, 30') and the lower battery case (20, 20') has a foldable structure formed by bending a spacing edge at least one time, and the spacing edge is disposed in a protruding direction of an electrode lead of the electrode assembly (40, 40'), wherein the electrode assembly (40, 40') comprises a welding portion connecting an end of an electrode tab to an end of an electrode lead and at least one fractured recess in an end of an electrode tab or an end of an electrode lead. a pouch type battery case and a electrode assembly (40, 40'); wherein the pouch type battery case comprises a space part accommodating an electrode assembly, an upper battery case (30, 30'), a lower battery case (20, 20'), and a sealing part for sealing the upper and lower battery cases (30, 30', 20, 20'), wherein each of the upper battery case (30, 30') and the lower battery case (20, 20') has a foldable structure formed by bending a spacing edge at least one time, and the spacing edge is disposed in a protruding direction of an electrode lead of the electrode assembly (40, 40'), wherein the electrode assembly (40, 40') comprises a welding portion connecting an end of an electrode tab to an end of an electrode lead and at least one fractured recess in an end of an electrode tab or an end of an electrode lead.
Two-wheeler, having a frame comprising - a front head tube which defines a front steering axis, and on which a front fork steerer tube, having a front wheel fork that receives a front wheel and steering rod on which a handlebar is disposed, is rotatably mounted; and - a rear head tube which defines a rear steering axis, and on which a rear fork steerer tube having a rear wheel fork that receives a rear wheel is rotatably mounted; - wherein the rear fork steerer tube by way of a coupling assembly is connected to the front fork steerer tube and is rotatable as a function of the rotation angle of the front fork steerer tube, characterized in that - the front steering axis and the rear steering axis are inclined towards one another and intersect below the handlebar. - a front head tube which defines a front steering axis, and on which a front fork steerer tube, having a front wheel fork that receives a front wheel and steering rod on which a handlebar is disposed, is rotatably mounted; and - a rear head tube which defines a rear steering axis, and on which a rear fork steerer tube having a rear wheel fork that receives a rear wheel is rotatably mounted; - wherein the rear fork steerer tube by way of a coupling assembly is connected to the front fork steerer tube and is rotatable as a function of the rotation angle of the front fork steerer tube, - the front steering axis and the rear steering axis are inclined towards one another and intersect below the handlebar.
Method for preparing an edible puffed composition from a non-puffed composition, and for presenting said edible puffed composition, comprising at least the following steps: - placing an assembly for preparing and presenting an edible composition intended to be puffed, comprising: • a portion defining a chamber for presenting the puffed composition, called presentation chamber, said presentation chamber having a lower face and an upper face having an opening, • a portion defining a storage chamber including at least said non-puffed composition, said portion being arranged in the portion, and the storage chamber being arranged to open into the presentation chamber when exposed to the expansion of the composition being puffed, and being removable through the opening, in a heating apparatus, characterized in that: the assembly is placed in said heating apparatus in such a way that the lower face of the presentation chamber is not in contact with the plane supporting the assembly and in that the method comprises the further steps of: - heating the assembly, - opening the assembly, and - removing the storage chamber from the presentation chamber. - placing an assembly for preparing and presenting an edible composition intended to be puffed, comprising: • a portion defining a chamber for presenting the puffed composition, called presentation chamber, said presentation chamber having a lower face and an upper face having an opening, • a portion defining a storage chamber including at least said non-puffed composition, said portion being arranged in the portion, and the storage chamber being arranged to open into the presentation chamber when exposed to the expansion of the composition being puffed, and being removable through the opening, in a heating apparatus, • a portion defining a chamber for presenting the puffed composition, called presentation chamber, said presentation chamber having a lower face and an upper face having an opening, • a portion defining a storage chamber including at least said non-puffed composition, said portion being arranged in the portion, and the storage chamber being arranged to open into the presentation chamber when exposed to the expansion of the composition being puffed, and being removable through the opening, the assembly is placed in said heating apparatus in such a way that the lower face of the presentation chamber is not in contact with the plane supporting the assembly and in that the method comprises the further steps of: - heating the assembly, - opening the assembly, and - removing the storage chamber from the presentation chamber. - heating the assembly, - opening the assembly, and - removing the storage chamber from the presentation chamber.
An input module for controlling a vehicle comprising: - a haptic input element, - at least one sensor, - at least one electronic circuit for determining a sensor signal, - at least one force feedback element comprising at least one electrical feedback mechanism, such as a force feedback motor, - a housing with - at least one electrical interface, wherein, - the input module is intended for retrospective fitting in a vehicle, - the sensor, the electronic circuit and the force feedback element are completely accommodated in the housing, the haptic input element is partially accommodated in the housing so that the input module is present as an integrated device, and characterized in that - the at least one electronic circuit is set up so that a calculation of the force feedback can be dynamically adjusted and can be adapted to suit a specific driver. - a haptic input element, - at least one sensor, - at least one electronic circuit for determining a sensor signal, - at least one force feedback element comprising at least one electrical feedback mechanism, such as a force feedback motor, - a housing with - at least one electrical interface, wherein, - the input module is intended for retrospective fitting in a vehicle, - the sensor, the electronic circuit and the force feedback element are completely accommodated in the housing, the haptic input element is partially accommodated in the housing so that the input module is present as an integrated device, and characterized in that - the at least one electronic circuit is set up so that a calculation of the force feedback can be dynamically adjusted and can be adapted to suit a specific driver.
Method for measuring a magnetic flux density of strong magnetic fields at an area to be measured on a nanoscale by detecting a quantum state of a magnetic-field-dependent photoluminescent particle, the method comprising: (a) positioning the magnetic-field-dependent photoluminescent particle in close proximity to the area to be measured; (b) performing manipulations for bringing the magnetic-field-dependent photoluminescent particle into a predetermined excitation level; (c) ramping up the magnetic flux density at the area to be measured; (d) irradiating the magnetic-field-dependent photoluminescent particle with electromagnetic microwave radiation in a specific frequency range; (e) ramping down the magnetic flux density at the area to be measured; (f) detecting the quantum state of the magnetic-field-dependent photoluminescent particle, wherein steps (c) to (f) are performed in the indicated order and steps (a) and (b) are performed before step (c), and wherein, in step (f), the detected quantum state is the detected quantum state as induced during step (d). (a) positioning the magnetic-field-dependent photoluminescent particle in close proximity to the area to be measured; (b) performing manipulations for bringing the magnetic-field-dependent photoluminescent particle into a predetermined excitation level; (c) ramping up the magnetic flux density at the area to be measured; (d) irradiating the magnetic-field-dependent photoluminescent particle with electromagnetic microwave radiation in a specific frequency range; (e) ramping down the magnetic flux density at the area to be measured; (f) detecting the quantum state of the magnetic-field-dependent photoluminescent particle, wherein steps (c) to (f) are performed in the indicated order and steps (a) and (b) are performed before step (c), and wherein, in step (f), the detected quantum state is the detected quantum state as induced during step (d).
A head cleaning mechanism comprising: a recording head including an ink ejection surface in which an ink ejection area is provided, the ink ejection area having a plurality of ink ejection ports opened therein for ejecting ink onto a recording medium; and a wiper for wiping the ink ejection surface in a specified direction, wherein the recording head includes an inclined surface placed on an upstream side of the ink ejection surface in a wiping direction that is a direction in which the wiper wipes the ink ejection surface, the inclined surface being inclined downward toward a downstream side of the wiping direction, and characterized in that a plurality of cleaning liquid supply ports for supplying cleaning liquid are provided on a wiping-direction upstream side of a position in the inclined surface with which the wiper makes contact during wiping operation. a recording head including an ink ejection surface in which an ink ejection area is provided, the ink ejection area having a plurality of ink ejection ports opened therein for ejecting ink onto a recording medium; and a wiper for wiping the ink ejection surface in a specified direction, wherein the recording head includes an inclined surface placed on an upstream side of the ink ejection surface in a wiping direction that is a direction in which the wiper wipes the ink ejection surface, the inclined surface being inclined downward toward a downstream side of the wiping direction, and characterized in that a plurality of cleaning liquid supply ports for supplying cleaning liquid are provided on a wiping-direction upstream side of a position in the inclined surface with which the wiper makes contact during wiping operation.
An implantable medical device system, comprising: an activity sensor configured to produce a signal correlated to patient physical activity and comprising heart motion signals; and a cardiac pacemaker comprising: a first sensing module configured to receive a first cardiac electrical signal; a pulse generator configured to generate and deliver pacing pulses to a patient's heart via a pair of electrodes (162, 164); and a control module coupled to the first sensing module, the pulse generator and the activity sensor and characterised in that the control module is configured to: detect a ventricular tachyarrhythmia from the first cardiac electrical signal; determine an activity metric that is correlated to the patient physical activity from the activity sensor signal; confirm a hemodynamically unstable rhythm based on the activity metric; and control the pulse generator to withhold anti-tachycardia pacing in response to confirming the hemodynamically unstable rhythm. an activity sensor configured to produce a signal correlated to patient physical activity and comprising heart motion signals; and a cardiac pacemaker comprising: a first sensing module configured to receive a first cardiac electrical signal; a pulse generator configured to generate and deliver pacing pulses to a patient's heart via a pair of electrodes (162, 164); and a control module coupled to the first sensing module, the pulse generator and the activity sensor and characterised in that the control module is configured to: detect a ventricular tachyarrhythmia from the first cardiac electrical signal; determine an activity metric that is correlated to the patient physical activity from the activity sensor signal; confirm a hemodynamically unstable rhythm based on the activity metric; and control the pulse generator to withhold anti-tachycardia pacing in response to confirming the hemodynamically unstable rhythm. a first sensing module configured to receive a first cardiac electrical signal; a pulse generator configured to generate and deliver pacing pulses to a patient's heart via a pair of electrodes (162, 164); and a control module coupled to the first sensing module, the pulse generator and the activity sensor and characterised in that the control module is configured to: detect a ventricular tachyarrhythmia from the first cardiac electrical signal; determine an activity metric that is correlated to the patient physical activity from the activity sensor signal; confirm a hemodynamically unstable rhythm based on the activity metric; and control the pulse generator to withhold anti-tachycardia pacing in response to confirming the hemodynamically unstable rhythm. detect a ventricular tachyarrhythmia from the first cardiac electrical signal; determine an activity metric that is correlated to the patient physical activity from the activity sensor signal; confirm a hemodynamically unstable rhythm based on the activity metric; and control the pulse generator to withhold anti-tachycardia pacing in response to confirming the hemodynamically unstable rhythm.
A multi-well tray for use with an automated biochemical analyser comprising: a base having a top surface, a bottom surface and an arm for engagement by a transport mechanism, the transport mechanism being configured to transport the multi-well tray within the automated biochemical analyser; and a plurality of wells disposed in the top surface of the base; and a pair of snap fingers formed in the bottom surface of the base, wherein the snap fingers define a slot into which an element of the automated biochemical analyser is inserted, the snap fingers being configured to grasp the element, thereby forming a secure attachment thereto; wherein the arm is located at a first end of the base, and wherein the snap fingers extend inwardly from a second end of the base, the first and second ends being at opposite ends of the base. a base having a top surface, a bottom surface and an arm for engagement by a transport mechanism, the transport mechanism being configured to transport the multi-well tray within the automated biochemical analyser; and a plurality of wells disposed in the top surface of the base; and a pair of snap fingers formed in the bottom surface of the base, wherein the snap fingers define a slot into which an element of the automated biochemical analyser is inserted, the snap fingers being configured to grasp the element, thereby forming a secure attachment thereto; wherein the arm is located at a first end of the base, and wherein the snap fingers extend inwardly from a second end of the base, the first and second ends being at opposite ends of the base.
A method for producing biomass feedstock, comprising the steps of: (i) cultivating green microalgae cells in which the expression and/or the activity of the DYRKP-1 protein of sequence SEQ ID NO: 1 is decreased, said decrease being obtainable by silencing, knocking down, mutating and/or interrupting the DYRKP-1 gene or by inhibiting the activity of the DYRKP-1 protein by chemical compounds acting as specific inhibitors; and (ii) inducing reserve accumulation and/or increase in biomass production by said microalgae, comprising incubating the microalgae cells in a deficient medium, said deficient medium being deficient in at least one element selected from the group consisting of nitrogen, sulfur and phosphorus. (i) cultivating green microalgae cells in which the expression and/or the activity of the DYRKP-1 protein of sequence SEQ ID NO: 1 is decreased, said decrease being obtainable by silencing, knocking down, mutating and/or interrupting the DYRKP-1 gene or by inhibiting the activity of the DYRKP-1 protein by chemical compounds acting as specific inhibitors; and (ii) inducing reserve accumulation and/or increase in biomass production by said microalgae, comprising incubating the microalgae cells in a deficient medium, said deficient medium being deficient in at least one element selected from the group consisting of nitrogen, sulfur and phosphorus.
Stabilizer composition for halogen-containing polymers, comprising at least one metal salt of a compound of formula I or a tautomer or a stereoiseomer thereof: wherein R 1 R 2 and R 3 are independently selected from the group consisting of hydroxyethyl, 2-propenyl and 2,3-epoxypropanyl; and each X is independently O or S, preferably X is O. R 1 R 2 and R 3 are independently selected from the group consisting of hydroxyethyl, 2-propenyl and 2,3-epoxypropanyl; and each X is independently O or S, preferably X is O.
Method of applying a material comprising a fusible polymer, comprising the step of: - applying a filament of the at least partly molten material comprising a fusible polymer from a discharge opening of a discharge element to a first substrate; characterized in that the fusible polymer has the following properties: - a melting point (DSC, differential scanning calorimetry; 2nd heating at heating rate 5°C/min) within a range from ≥ 35°C to ≤ 150°C; - a glass transition temperature (DMA, dynamic-mechanical analysis to DIN EN ISO 6721-1:2011) within a range from ≥ -70°C to ≤ 110°C; wherein the filament, during the application process, has an application temperature of ≥ 100°C above the melting point of the fusible polymer for ≤ 20 minutes and wherein there are still free NCO groups in the material including the fusible polymer. - applying a filament of the at least partly molten material comprising a fusible polymer from a discharge opening of a discharge element to a first substrate; characterized in that the fusible polymer has the following properties: - a melting point (DSC, differential scanning calorimetry; 2nd heating at heating rate 5°C/min) within a range from ≥ 35°C to ≤ 150°C; - a glass transition temperature (DMA, dynamic-mechanical analysis to DIN EN ISO 6721-1:2011) within a range from ≥ -70°C to ≤ 110°C; - a melting point (DSC, differential scanning calorimetry; 2nd heating at heating rate 5°C/min) within a range from ≥ 35°C to ≤ 150°C; - a glass transition temperature (DMA, dynamic-mechanical analysis to DIN EN ISO 6721-1:2011) within a range from ≥ -70°C to ≤ 110°C; wherein the filament, during the application process, has an application temperature of ≥ 100°C above the melting point of the fusible polymer for ≤ 20 minutes and wherein there are still free NCO groups in the material including the fusible polymer.
A fluorinated chromium-containing fluorination catalyst which consists essentially of (i) one or more compounds of zinc and (ii) one or more chromium compounds comprising one or more chromium compounds selected from the group consisting of chromia, chromium fluoride, fluorinated chromia and chromium oxyfluorides wherein: from 1.0 to 10.0 % of the total weight of the catalyst is zinc contained in aggregates which have a size across their largest dimension of up to 1 micron and which are distributed throughout at least the surface region of the catalyst, greater than 70 weight % of the zinc-containing aggregates contain a concentration of zinc that is within ±1 weight % of the modal concentration of zinc in the zinc-containing aggregates, and the catalyst has a surface area in the range of from 20 to 300 m 2 /g and is amorphous or is partially crystalline containing from 0.1 to 5 % by weight of one or more crystalline compounds of chromium and/or one or more crystalline compounds of zinc based on the total weight of the catalyst. from 1.0 to 10.0 % of the total weight of the catalyst is zinc contained in aggregates which have a size across their largest dimension of up to 1 micron and which are distributed throughout at least the surface region of the catalyst, greater than 70 weight % of the zinc-containing aggregates contain a concentration of zinc that is within ±1 weight % of the modal concentration of zinc in the zinc-containing aggregates, and the catalyst has a surface area in the range of from 20 to 300 m 2 /g and is amorphous or is partially crystalline containing from 0.1 to 5 % by weight of one or more crystalline compounds of chromium and/or one or more crystalline compounds of zinc based on the total weight of the catalyst.