mhurhangee/ep-ind-claims huggingface dataset:
A storage unit comprising: - a storage section (33, 107) containing an information processing apparatus; - an intake section (77, 109) allowing intake of a cooling medium into the information processing apparatus for cooling the information processing apparatus; - a discharge section (78, 118) receiving the cooling medium discharged from the information processing apparatus; - a cooling medium flow generating section (29, 42, 117) configured to control intake and discharge of the cooling medium; - a partition section (35, 110) partitioning the intake section and the discharge section from each other; - an aperture (37, 113) formed in the partition section; characterized by further comprising - a detector section (38, 49, 114,115, 82) configured to detect a direction of flow of the cooling medium, discharged from the discharge section, through the aperture; and - a controller section configured to control the cooling medium flow generating section (29, 42, 117) so as to adjust flow rate of the cooling medium in accordance with the direction of flow as a result of the detection by the detector section (38, 49, 114, 115, 82). - a storage section (33, 107) containing an information processing apparatus; - an intake section (77, 109) allowing intake of a cooling medium into the information processing apparatus for cooling the information processing apparatus; - a discharge section (78, 118) receiving the cooling medium discharged from the information processing apparatus; - a cooling medium flow generating section (29, 42, 117) configured to control intake and discharge of the cooling medium; - a partition section (35, 110) partitioning the intake section and the discharge section from each other; - an aperture (37, 113) formed in the partition section; - a detector section (38, 49, 114,115, 82) configured to detect a direction of flow of the cooling medium, discharged from the discharge section, through the aperture; and - a controller section configured to control the cooling medium flow generating section (29, 42, 117) so as to adjust flow rate of the cooling medium in accordance with the direction of flow as a result of the detection by the detector section (38, 49, 114, 115, 82).
An image display device worn on a head or face of a user, comprising: a touch panel; a display unit; a real world image acquisition unit (702; 1402) configured to acquire an image of a real world; a region specification unit configured to specify a region in which to display the image of the real world corresponding to a location where the user touched the touch panel; and an image generation unit configured to mix the image of the real world into a virtual image on a basis of the specified region, and generate an image to display on the display unit; a virtual world image generation unit configured to generate an image of a virtual world V; and a region image generation unit configured to calculate an image R I of the real world and an image R V of a region of the virtual world V corresponding to the region specified by the region specification unit, wherein the image generation unit generates the image to display on the display unit by replacing the image R V of the region of the virtual world V with the image R I of the corresponding region of the real world. a touch panel; a display unit; a real world image acquisition unit (702; 1402) configured to acquire an image of a real world; a region specification unit configured to specify a region in which to display the image of the real world corresponding to a location where the user touched the touch panel; and an image generation unit configured to mix the image of the real world into a virtual image on a basis of the specified region, and generate an image to display on the display unit; a virtual world image generation unit configured to generate an image of a virtual world V; and a region image generation unit configured to calculate an image R I of the real world and an image R V of a region of the virtual world V corresponding to the region specified by the region specification unit, wherein the image generation unit generates the image to display on the display unit by replacing the image R V of the region of the virtual world V with the image R I of the corresponding region of the real world.
Device for use in felling work on a tree, characterized by a foldable protective screen, which is designed to at least partially surround a trunk of the tree in the spread-out state such that, while making a felling notch in a portion of the trunk of the tree below the protective screen, a worker can stand underneath said screen.
Device for the continuous production of materials, preferably for the production of material panels from essentially non-metallic material, comprising a continuous furnace for the continuous heating of material on an endlessly circulating conveyor belt and a press connected downstream in the production direction, wherein the continuous furnace has a plurality of magnetrons for generating electromagnetic waves and waveguides with outlet openings for feeding the waves into a radiation chamber, wherein the outlet openings are arranged in rows and tracks longitudinally and transversely to the production direction, characterized in that a control or regulating device is arranged for actuating individual or grouped magnetrons in order to operate them with different powers for producing a differentiated power profile, preferably in and/or transversely to the production direction.
A method of controlling a washing machine comprising: a spin-drying step of accelerating the drum performed at the last stage of the washing cycle to remove moisture from laundry received in the drum; a water supply step of supplying wash water into a tub while rotating a drum at a water supply rotational speed, the drum being decelerated to the water supply rotational speed when the spin-drying step is finished, and then the drum starts to be rotated at the water supply rotational speed; an acceleration step of accelerating the drum and sensing an eccentric amount of the drum after the water supply step; and a cleaning step (S251, S253) of rotating the drum such that the wash water cleans an inner circumferential surface of the tub while being circulated along the inner circumferential surface of the tub by a rotational force of the drum and setting a rotational speed of the drum based on the sensed eccentric amount. a spin-drying step of accelerating the drum performed at the last stage of the washing cycle to remove moisture from laundry received in the drum; a water supply step of supplying wash water into a tub while rotating a drum at a water supply rotational speed, the drum being decelerated to the water supply rotational speed when the spin-drying step is finished, and then the drum starts to be rotated at the water supply rotational speed; an acceleration step of accelerating the drum and sensing an eccentric amount of the drum after the water supply step; and a cleaning step (S251, S253) of rotating the drum such that the wash water cleans an inner circumferential surface of the tub while being circulated along the inner circumferential surface of the tub by a rotational force of the drum and setting a rotational speed of the drum based on the sensed eccentric amount.
A bulk processor for an item, comprising: a processing chamber (30, 40) having a product inlet and a product outlet; a conveyor for conveying product through the processing chamber (30, 40); and an axial flow fan for circulating air around the product; wherein the axial flow fan is mounted in a door to the processing chamber and wherein the axial flow fan extends obliquely into the processing chamber (30, 40), wherein the axial flow fan is driven by a fan motor extending obliquely through the door and into an air duct formed in the processing chamber, and wherein the axial flow fan has a shroud that extends to and interfaces with a lower duct at an angle, so that the bottom of the axial flow fan is closer to the door than the top of the axial flow fan. a processing chamber (30, 40) having a product inlet and a product outlet; a conveyor for conveying product through the processing chamber (30, 40); and an axial flow fan for circulating air around the product; wherein the axial flow fan is mounted in a door to the processing chamber and wherein the axial flow fan extends obliquely into the processing chamber (30, 40), wherein the axial flow fan is driven by a fan motor extending obliquely through the door and into an air duct formed in the processing chamber, and wherein the axial flow fan has a shroud that extends to and interfaces with a lower duct at an angle, so that the bottom of the axial flow fan is closer to the door than the top of the axial flow fan.
A device for dispensing a liquid onto a substrate, comprising a container for the liquid that has an open end on a distal side and a closed end on a proximal side, and an applicator head which is arranged at the open end and comprises an application means which is fastened to a protruding holding element, a receiving portion for the holding element being provided so as to make it possible to fasten the applicator head in place, a feed opening being provided for feeding liquid from the container to the application means, characterized in that a protruding neck is provided on the distal side, the applicator head being arranged such that the application means protrudes from the protruding neck toward the distal side, and in that the neck is designed such that it tapers toward the distal side.
Method for charging or discharging an electrochemical energy store, the ageing behaviour of which is modelled by describing its depth of discharge (DoD), at which a depth-of-discharge value is associated with each time period between two adjacent local maxima and minima in a time-dependent state-of-charge profile, which depth-of-discharge value corresponds to the charging or discharging stroke between the state-of-charge values of the two adjacent local maxima and minima, in which the energy store is transitioned from a first state of charge at a first time to a second state of charge at a second time by way of the charging or discharging process being interrupted at least once within the time period formed between the first and the second time (t0, t7) to form respective charging or discharging subblocks (10L, 20L, 30L, 40L; 10E, 20E, 30E, 40E) with a respective charging or discharging stroke (11L, 21L, 31L, 41L; 11E, 21E, 31E, 41E), wherein a respective charging or discharging stroke (11L, 21L, 31L, 41L; 11E, 21E, 31E, 41E) is smaller than the total stroke between the first and the second state of charge (SOC1, SOC2); characterized in that the magnitude of the charging current or discharging current for each charging or discharging subblock (10L, 20L, 30L, 40L; 10E, 20E, 30E, 40E) is adapted in dependence on the length of the previous interruption (12, 22, 32), with the result that it is ensured that the second state of charge is reached at the second time.
A method of oxidising a saccharide which is a disaccharide, oligosaccharide or polysaccharide, by contacting the saccharide with a quinone redox cofactor-dependent alcohol dehydrogenase enzyme, wherein the alcohol dehydrogenase is selected from Pseudogluconobacter saccharoketogenes ADH comprising the amino acid sequence SEQ ID No 1, or Pseudogluconobacter saccharoketogenes ADH comprising the amino acid sequence SEQ ID No 1A, or an alcohol dehydrogenase enzyme having at least 70% (such as at least 75%, or at least 80%, or at least 85%, or at least 90%, or at least 95%, or at least 96%, or at least 97%, or at least 98% or at least 99%) sequence identity to any thereof.
A method for scrambling sequence configuration, comprising: when a user equipment, UE, receives a transmission signal from a base station via an enhanced control channel, obtaining a search space corresponding to the enhanced control channel, wherein the search space is a UE-specific search space or a common search space; performing a scrambling initialization operation according to the search space, wherein: when the search space is the UE-specific search space, an initialization value of a scrambling sequence is determined based on a cell radio network temporary identifier, C-RNTI, and an identifier, ID,; when the search space is the common search space, an initialization value of a scrambling sequence is determined based on the ID; determining the scrambling sequence according to the initialization value of the scrambling sequence; and performing a descrambling operation to the transmission signal according to the scrambling sequence, and obtaining information in the transmission signal, characterized in that before the random access of the UE, the ID is a physical cell ID, and after the random access of the UE, the ID is a virtual cell ID configured by a higher layer signaling, and the virtual cell ID is the same as a virtual cell ID of a demodulation reference signal, DMRS, scrambling sequence of the enhanced control channel. when a user equipment, UE, receives a transmission signal from a base station via an enhanced control channel, obtaining a search space corresponding to the enhanced control channel, wherein the search space is a UE-specific search space or a common search space; performing a scrambling initialization operation according to the search space, wherein: when the search space is the UE-specific search space, an initialization value of a scrambling sequence is determined based on a cell radio network temporary identifier, C-RNTI, and an identifier, ID,; when the search space is the common search space, an initialization value of a scrambling sequence is determined based on the ID; when the search space is the UE-specific search space, an initialization value of a scrambling sequence is determined based on a cell radio network temporary identifier, C-RNTI, and an identifier, ID,; when the search space is the common search space, an initialization value of a scrambling sequence is determined based on the ID; determining the scrambling sequence according to the initialization value of the scrambling sequence; and performing a descrambling operation to the transmission signal according to the scrambling sequence, and obtaining information in the transmission signal, characterized in that before the random access of the UE, the ID is a physical cell ID, and after the random access of the UE, the ID is a virtual cell ID configured by a higher layer signaling, and the virtual cell ID is the same as a virtual cell ID of a demodulation reference signal, DMRS, scrambling sequence of the enhanced control channel.
Moisture-crosslinkable sealant composition comprising: - at least one polyurethane P comprising at least two NCO end functions; - at least one polyimine A obtained via a process comprising a step of reaction between at least: a) a (poly)urethane-aldehyde comprising at least 2 aldehyde functions; b) a primary diamine; c) optionally in the presence of a primary monoamine or a monoaldehyde if the -CHO/NH 2 molar ratio is other than 1. - at least one polyurethane P comprising at least two NCO end functions; - at least one polyimine A obtained via a process comprising a step of reaction between at least: a) a (poly)urethane-aldehyde comprising at least 2 aldehyde functions; b) a primary diamine; c) optionally in the presence of a primary monoamine or a monoaldehyde if the -CHO/NH 2 molar ratio is other than 1. a) a (poly)urethane-aldehyde comprising at least 2 aldehyde functions; b) a primary diamine; c) optionally in the presence of a primary monoamine or a monoaldehyde if the -CHO/NH 2 molar ratio is other than 1.
A process for producing a modified coal from a coal of low-rank as a raw material, comprising: a step of dehydrating the coal; a step of adding water to the dehydrated coal; a step of agglomerating the water-added coal; a step of gradually oxidizing the agglomerated coal; and after the oxidation step, a step of grinding the oxidized coal and a step of secondarily adding water for dusting prevention to the ground coal, wherein: in the water addition step, an added amount of the water is regulated so that the water-added coal has a water content of 5% by mass or more and 20% by mass or less; and, in the oxidation step, the agglomerated coal is held in an air at a temperature of 70°C or more and 105°C or less. a step of dehydrating the coal; a step of adding water to the dehydrated coal; a step of agglomerating the water-added coal; a step of gradually oxidizing the agglomerated coal; and after the oxidation step, a step of grinding the oxidized coal and a step of secondarily adding water for dusting prevention to the ground coal, wherein: in the water addition step, an added amount of the water is regulated so that the water-added coal has a water content of 5% by mass or more and 20% by mass or less; and, in the oxidation step, the agglomerated coal is held in an air at a temperature of 70°C or more and 105°C or less. in the water addition step, an added amount of the water is regulated so that the water-added coal has a water content of 5% by mass or more and 20% by mass or less; and, in the oxidation step, the agglomerated coal is held in an air at a temperature of 70°C or more and 105°C or less.
A method for producing a shoe, the method comprising: a preparation step of preparing an adapter (10, 20, 30, 40) that at least comprises a first thermoplastic (111, 211, 311, 411) and an energy absorber having a higher dielectric loss factor than that of the first thermoplastic, the adapter having a first surface and a second surface opposite to the first surface and having the first thermoplastic exposed at least on the first surface; a contacting step of bringing a first bonded surface formed on a first shoe member into abutting contact with the first surface and bringing a second bonded surface formed on a second shoe member into abutting contact with the second surface; and a bonding step of heating and melting the adapter by irradiating the adapter with microwaves after the contacting step to cause the first shoe member and the second shoe member to be bonded to each other via the adapter, wherein the adapter comprises a second thermoplastic (121, 221, 321, 421) that differs in kind from the first thermoplastic, the first thermoplastic is present at a higher ratio than the second thermoplastic on the first surface, and the second thermoplastic is present at a higher ratio than the first thermoplastic on the second surface. a preparation step of preparing an adapter (10, 20, 30, 40) that at least comprises a first thermoplastic (111, 211, 311, 411) and an energy absorber having a higher dielectric loss factor than that of the first thermoplastic, the adapter having a first surface and a second surface opposite to the first surface and having the first thermoplastic exposed at least on the first surface; a contacting step of bringing a first bonded surface formed on a first shoe member into abutting contact with the first surface and bringing a second bonded surface formed on a second shoe member into abutting contact with the second surface; and a bonding step of heating and melting the adapter by irradiating the adapter with microwaves after the contacting step to cause the first shoe member and the second shoe member to be bonded to each other via the adapter, wherein the adapter comprises a second thermoplastic (121, 221, 321, 421) that differs in kind from the first thermoplastic, the first thermoplastic is present at a higher ratio than the second thermoplastic on the first surface, and the second thermoplastic is present at a higher ratio than the first thermoplastic on the second surface.
A process chamber, comprising: a chamber body having a chamber lid assembly disposed thereon; one or more monitoring devices (173A, 173B) coupled to the chamber lid assembly; and one or more antennas disposed adjacent to the chamber lid assembly that are in communication with the one or more monitoring devices (173A, 173 B), wherein the one or more antennas are configured to transmit data. a chamber body having a chamber lid assembly disposed thereon; one or more monitoring devices (173A, 173B) coupled to the chamber lid assembly; and one or more antennas disposed adjacent to the chamber lid assembly that are in communication with the one or more monitoring devices (173A, 173 B), wherein the one or more antennas are configured to transmit data.
A pharmaceutical combination for use in the prevention, delay of progression or treatment of cancer, comprising a PD-1 antagonist and a RAF inhibitor, wherein the PD-1 antagonist is an antibody or a fragment antigen binding thereof, which specifically binds to human PD-1, comprising a heavy chain variable region (Vh) and a light chain variable region (Vk) that contain complement determinant regions (CDRs) listed as follows: CDR-H1, CDR-H2 and CDR-H3 (SEQ ID NOs: 31, 32, 33, respectively); and CDR-L1, CDR-L2 and CDR-L3 (SEQ ID NOs: 34, 35, 36, respectively); and wherein the RAF inhibitor is a compound of Formula, or a pharmaceutically acceptable salt thereof. CDR-H1, CDR-H2 and CDR-H3 (SEQ ID NOs: 31, 32, 33, respectively); and CDR-L1, CDR-L2 and CDR-L3 (SEQ ID NOs: 34, 35, 36, respectively); and
A method of visualisation between an electronic vapour provision system and a visualisation device, comprising the steps of: obtaining from the electronic vapour provision system notification that an inhalation on the electronic vapour provision system by a user has occurred; estimating a time of exhalation by the user responsive to the time of notification; and initiating a display of a computer graphic by the visualisation device responsive to the estimated time of exhalation. obtaining from the electronic vapour provision system notification that an inhalation on the electronic vapour provision system by a user has occurred; estimating a time of exhalation by the user responsive to the time of notification; and initiating a display of a computer graphic by the visualisation device responsive to the estimated time of exhalation.
An electronic device (901, 902), comprising: a housing (903, 904) having inner side surfaces; an inductive coil (907, 908) located within the housing (903, 904) and operable to transmit or receive power in an inductive power transmission system, the inductive coil having a face surface facing a magnetic path of the inductive power transmission system, a second surface opposite the face surface, and an outer side surface connecting the face surface and the second surface and oriented toward the inner side surfaces of the housing; and a magnetic field directing material (909, 910) internal to the housing (903, 904); wherein the magnetic field directing material (909, 910) blocks magnetic flux from the inductive power transmission system to the housing (903, 904), characterized in that: the magnetic field directing material (909, 910) is disposed on and directly in contact with the inner side surfaces of the housing (903, 904). a housing (903, 904) having inner side surfaces; an inductive coil (907, 908) located within the housing (903, 904) and operable to transmit or receive power in an inductive power transmission system, the inductive coil having a face surface facing a magnetic path of the inductive power transmission system, a second surface opposite the face surface, and an outer side surface connecting the face surface and the second surface and oriented toward the inner side surfaces of the housing; and a magnetic field directing material (909, 910) internal to the housing (903, 904); wherein the magnetic field directing material (909, 910) blocks magnetic flux from the inductive power transmission system to the housing (903, 904), characterized in that: the magnetic field directing material (909, 910) is disposed on and directly in contact with the inner side surfaces of the housing (903, 904).