mhurhangee/ep-ind-claims huggingface dataset:
An information processing device playing a role of a target in contactless communication, the information processing device comprising: a processing unit configured to select a first processing mode in which static information is transmitted or a second processing mode in which dynamic information according to a process is transmitted on a basis of a predetermined request recognized in contactless communication with an external device external to the information processing device, the external device being a reader/writer, and to perform a process corresponding to a selected processing mode, wherein the processing unit selects the first processing mode in a case in which the recognized predetermined request is a read request for causing information to be transmitted to the external device and selects the second processing mode in a case in which the recognized predetermined request is a write request for causing information to be written in a recording medium of the information processing device; wherein, in a case in which the second processing mode has been selected, the processing unit transmits information relating to power reception as the dynamic information to the external device; wherein, in a case in which an end of power reception is detected by the information processing device when charging from the external device is being performed through the contactless communication on a basis of the information relating to power reception, the processing unit changes impedance. a processing unit configured to select a first processing mode in which static information is transmitted or a second processing mode in which dynamic information according to a process is transmitted on a basis of a predetermined request recognized in contactless communication with an external device external to the information processing device, the external device being a reader/writer, and to perform a process corresponding to a selected processing mode, wherein the processing unit selects the first processing mode in a case in which the recognized predetermined request is a read request for causing information to be transmitted to the external device and selects the second processing mode in a case in which the recognized predetermined request is a write request for causing information to be written in a recording medium of the information processing device; wherein, in a case in which the second processing mode has been selected, the processing unit transmits information relating to power reception as the dynamic information to the external device; wherein, in a case in which an end of power reception is detected by the information processing device when charging from the external device is being performed through the contactless communication on a basis of the information relating to power reception, the processing unit changes impedance.
A method for migrating data, applied to a source storage array, wherein the source storage array comprises a source network interface card and a source solid state disk, SSD, the source network interface card comprises a source migration cache, and the source SSD accesses the source migration cache based on access information of the source migration cache; and the method is performed by the source network interface card, and the method comprises: receiving a first migration instruction, wherein the first migration instruction carries an address of to-be-migrated data in the source SSD and information about a target SSD to which the to-be-migrated data is to be migrated, and the target SSD belongs to a target storage array; sending a read instruction to the source SSD, wherein the read instruction comprises the address of the to-be-migrated data in the source SSD and the access information of the source migration cache, and the read instruction is used to instruct the source SSD to read the to-be-migrated data into the source migration cache; and sending a second migration instruction to a target network interface card of the target storage array, wherein the second migration instruction comprises the access information of the source migration cache and an address of the target SSD that is determined based on the information about the target SSD, the access information of the source migration cache comprises information about the to-be-migrated data stored in the source migration cache, and the second migration instruction is used to instruct the target network interface card to migrate the to-be-migrated data in the source migration cache to the target storage array. receiving a first migration instruction, wherein the first migration instruction carries an address of to-be-migrated data in the source SSD and information about a target SSD to which the to-be-migrated data is to be migrated, and the target SSD belongs to a target storage array; sending a read instruction to the source SSD, wherein the read instruction comprises the address of the to-be-migrated data in the source SSD and the access information of the source migration cache, and the read instruction is used to instruct the source SSD to read the to-be-migrated data into the source migration cache; and sending a second migration instruction to a target network interface card of the target storage array, wherein the second migration instruction comprises the access information of the source migration cache and an address of the target SSD that is determined based on the information about the target SSD, the access information of the source migration cache comprises information about the to-be-migrated data stored in the source migration cache, and the second migration instruction is used to instruct the target network interface card to migrate the to-be-migrated data in the source migration cache to the target storage array.
A device for heating air and a liquid, comprising an air inlet, an air outlet, an air interaction area, an air conveying device, a liquid inlet, a liquid outlet, a liquid interaction area, a liquid conveying device, an energy unit, a heat exchanger, and a control unit, wherein air to be heated enters the device via the air inlet, wherein heated air exits the device via the air outlet, wherein liquid to be heated enters the device via the liquid inlet, wherein heated liquid exits the device via the liquid outlet, wherein the energy unit generates thermal energy, wherein the heat exchanger transfers the thermal energy generated by the energy unit to the air in the air interaction area and to the liquid in the liquid interaction area, wherein the air conveying device conveys the air into the air interaction area, wherein the liquid conveying device conveys the liquid into the liquid interaction area, wherein the control unit is configured to control the air conveying device and the liquid conveying device depending on whether the device heats only air in an air mode or liquid in a different mode, characterized in that in the event of a change from the air mode to the other mode, the control unit is configured to control the liquid conveying device such that the liquid does not enter the liquid interaction area until a critical temperature of the heat exchanger is below a predeterminable starting value. comprising an air inlet, an air outlet, an air interaction area, an air conveying device, a liquid inlet, a liquid outlet, a liquid interaction area, a liquid conveying device, an energy unit, a heat exchanger, and a control unit, wherein air to be heated enters the device via the air inlet, wherein heated air exits the device via the air outlet, wherein liquid to be heated enters the device via the liquid inlet, wherein heated liquid exits the device via the liquid outlet, wherein the energy unit generates thermal energy, wherein the heat exchanger transfers the thermal energy generated by the energy unit to the air in the air interaction area and to the liquid in the liquid interaction area, wherein the air conveying device conveys the air into the air interaction area, wherein the liquid conveying device conveys the liquid into the liquid interaction area, wherein the control unit is configured to control the air conveying device and the liquid conveying device depending on whether the device heats only air in an air mode or liquid in a different mode, characterized in that in the event of a change from the air mode to the other mode, the control unit is configured to control the liquid conveying device such that the liquid does not enter the liquid interaction area until a critical temperature of the heat exchanger is below a predeterminable starting value.
A method of manufacturing a substrate (300; 600) for a liquid discharge head which includes an Si substrate which is provided with a liquid discharge energy generating element on a first surface and which is provided with a Si pillar between liquid supply ports, wherein the liquid supply ports are provided to pass through the Si substrate from the first surface to the rear surface thereof so as to supply a liquid to the liquid discharge energy generating element, wherein, on the first surface of the Si pillar between nearest liquid supply ports with a width of W1, lines are formed to electrically connect the liquid discharge energy generating element and a semiconductor element for driving the liquid discharge energy generating element, the method comprising: forming a plurality of guide holes as concave portions on the rear surface of the Si substrate of which a plane orientation is so as to being aligned in rows along a <100> direction of the Si substrate with the two nearest guide holes being aligned in the <100> direction, the concave portions facing the first surface; and forming a plurality of the liquid supply ports by carrying out a crystal axis anisotropic etching on the Si substrate through the concave portions using an etching liquid of which an etching rate of the plane of the Si substrate is slower than an etching rate of a plane of the Si substrate. forming a plurality of guide holes as concave portions on the rear surface of the Si substrate of which a plane orientation is so as to being aligned in rows along a <100> direction of the Si substrate with the two nearest guide holes being aligned in the <100> direction, the concave portions facing the first surface; and forming a plurality of the liquid supply ports by carrying out a crystal axis anisotropic etching on the Si substrate through the concave portions using an etching liquid of which an etching rate of the plane of the Si substrate is slower than an etching rate of a plane of the Si substrate.
An eyeglass lens processing apparatus for processing an eyeglass lens, the apparatus comprising: a facetting tool (221 a, 221 b, 223a, 223b) that facets an edge corner of the lens which has been finished; a lens chuck (102L, 102R) that holds the lens; input means (2, 5) configured to input a target lens shape; lens measuring means (300F, 300R) configured to measure front and rear edge paths of the lens after finishing process based on the input target lens shape; display means (5, 50) configured to display a front outline graphic input target lens shape; and setting means (5, 50) for setting a facetting area of the lens, characterized in that the display means is configured to display a side outline graphic as view from at least one direction based on the measured front and rear edge paths and to display the set facetting area in the front and side outline graphics, the apparatus further comprises means (6, 605a, 605b) configured to changing a view direction of the side outline graphic so that the side outline graphic can be viewed in any direction, and the display means is configured to change a display state of the side outline graphic with respect to the frontoutline graphic and the set facetting area in the side outline graphics according to the changed viewed direction. a facetting tool (221 a, 221 b, 223a, 223b) that facets an edge corner of the lens which has been finished; a lens chuck (102L, 102R) that holds the lens; input means (2, 5) configured to input a target lens shape; lens measuring means (300F, 300R) configured to measure front and rear edge paths of the lens after finishing process based on the input target lens shape; display means (5, 50) configured to display a front outline graphic input target lens shape; and setting means (5, 50) for setting a facetting area of the lens, characterized in that the display means is configured to display a side outline graphic as view from at least one direction based on the measured front and rear edge paths and to display the set facetting area in the front and side outline graphics, the apparatus further comprises means (6, 605a, 605b) configured to changing a view direction of the side outline graphic so that the side outline graphic can be viewed in any direction, and the display means is configured to change a display state of the side outline graphic with respect to the frontoutline graphic and the set facetting area in the side outline graphics according to the changed viewed direction.
A dishwasher comprising a body; a washing tub that is disposed in the body and wherein the washing process is performed; a drying duct that is arranged between the washing tub and the body and that enables the dry air to be sent into the washing tub; and a heat pump that is disposed under the washing tub and that has a first heat exchanger enabling the water to be used in the washing step to be heated by drawing heat from the environment, a second heat exchanger transferring the heat received from the first heat exchanger to the washing water and a compressor fluidly connected to the first heat exchanger and the second heat exchanger so as to realize the refrigerant cycle, characterized by at least one water tank that is disposed between the washing tub and the body, and at least one extension that extends from the first heat exchanger and/or the second heat exchanger towards the water tank so as to enable the water in the water tank to be heated or cooled.
Modular leak prevention device for a fluid container of a vehicle brake system, comprising - a housing, by means of which the modular leak prevention device can be attached to a fluid discharge opening of the fluid container, and - a switching element, which is movable between an open position, in which a fluid passage in the housing is released, and a closed position, in which a fluid passage is closed, wherein the switching element is preloaded into the closed position by means of at least one preloading means. - a housing, by means of which the modular leak prevention device can be attached to a fluid discharge opening of the fluid container, and - a switching element, which is movable between an open position, in which a fluid passage in the housing is released, and a closed position, in which a fluid passage is closed, wherein the switching element is preloaded into the closed position by means of at least one preloading means.
A drive control device for a hybrid vehicle provided with: a differential device (14, 16; 14, 16') which includes a first differential mechanism and a second differential mechanism (16; 16') and which has four rotary elements (C1, C2/S1/S2/R1, R2; C1, R2'/S1/S2'/R1, C2'); and an engine, a first electric motor, a second electric motor and an output rotary member which are respectively connected to said four rotary elements, and wherein one (C1, C2; C1, R2') of said four rotary elements is constituted by a rotary component (C1; C1) of said first differential mechanism and a rotary component (C2; R2') of said second differential mechanism which are selectively connected to each other through a clutch, and one (C2; R2') of the rotary components of said first and second differential mechanisms which are selectively connected to each other through said clutch is selectively fixed to a stationary member through a brake, said hybrid vehicle being selectively placed in one of drive modes including a first hybrid drive mode in which said brake is placed in an engaged state while said clutch is placed in a released state, and a second hybrid drive mode in which said brake is placed in a released state while said clutch is placed in an engaged state, said drive control device being characterized by comprising: an engine stop control portion configured to switch the hybrid drive mode from said second hybrid drive mode to said first hybrid drive mode, before stopping said engine according to a requirement to stop said engine in said second hybrid drive mode; a resonance restriction control portion configured to initiate positive reduction of an operating speed of said engine with an operation of said first electric motor when said operating speed of the engine has dropped below a predetermined determination value; and a torque offsetting control portion configured to control said second electric motor so as to offset a reaction force which acts on said output rotary member as a result of the positive reduction of the operating speed of the engine by the first electric motor. an engine stop control portion configured to switch the hybrid drive mode from said second hybrid drive mode to said first hybrid drive mode, before stopping said engine according to a requirement to stop said engine in said second hybrid drive mode; a resonance restriction control portion configured to initiate positive reduction of an operating speed of said engine with an operation of said first electric motor when said operating speed of the engine has dropped below a predetermined determination value; and a torque offsetting control portion configured to control said second electric motor so as to offset a reaction force which acts on said output rotary member as a result of the positive reduction of the operating speed of the engine by the first electric motor.
Combined pharmaceutical solid oral dosage form comprising lercanidipine or a pharmaceutically acceptable salt thereof as the active substance, and enalapril or a pharmaceutically acceptable salt thereof as the active substance, and comprising an organic acid, wherein the organic acid is maleic and/or citric acid.
Method for the protection of a controllable semiconductor switch in high-end arrangement against overload and short-circuiting in a load circuit, wherein the method comprises the following steps: - detection of an output voltage of the semiconductor switch, which output voltage is the voltage drop across the load circuit; - comparison of a detected output voltage with a predicted switching progress in the form of a threshold value; - deactivation of the semiconductor switch if the detected output voltage is smaller than the predicted switching progress, wherein the steps of detecting an output voltage and of comparing the detected output voltage with the predicted switching progress are repeated at least once, and wherein the predicted switching progress is freely programmable. - detection of an output voltage of the semiconductor switch, which output voltage is the voltage drop across the load circuit; - comparison of a detected output voltage with a predicted switching progress in the form of a threshold value; - deactivation of the semiconductor switch if the detected output voltage is smaller than the predicted switching progress,
Articulated-arm awning comprising a rotatably mounted fabric shaft from which a piece of fabric can be unrolled, the front end of which piece of fabric is fixed to an extending profile supported by articulated arms, wherein at least one support which is fixed at the bottom is arranged, against the upper free end of which the extending profile moves when the awning is completely extended, at least one magnet (10, 11, 21) is arranged on the extending profile or the upper end of the support and forms a releasable magnetic connection to a corresponding magnetic counterpart (12, 13, 22) on the other part when the awning is completely extended.
Compound chosen from the following compounds: - 2,6-di- tert -butyl-4- {2-[3-methyl-1-(methylamino)butyl]-1,3-thiazol-4-yl}phenol; - 2,6-di- tert -butyl-4- {2-[ -1-(methylamino)ethyl]-1,3-thiazol-4-yl}phenol; - 2,6-di- tert -butyl-4-(2-[ -1-(methylamino)ethyl]-1,3-thiazol-4-yl}phenol; - 4- {2-[ -1-aminoethyl]-1,3-thiazol-4-yl}-2,6-di- tert -butylphenol; - 4- {2-[ -1-aminoethyl]-1,3-thiazol-4-yl} -2,6-di- tert -butylphenol; - 4-[2-(1-aminocyclopropyl)-1,3-thiazol-4-yl]-2,6-di- tert -butylphenol; - 4-[2-(1-aminocyclopentyl)-1,3-thiazol-4-yl]-2,6-di- tert -butylphenol; or a salt thereof. - 2,6-di- tert -butyl-4- {2-[3-methyl-1-(methylamino)butyl]-1,3-thiazol-4-yl}phenol; - 2,6-di- tert -butyl-4- {2-[ -1-(methylamino)ethyl]-1,3-thiazol-4-yl}phenol; - 2,6-di- tert -butyl-4-(2-[ -1-(methylamino)ethyl]-1,3-thiazol-4-yl}phenol; - 4- {2-[ -1-aminoethyl]-1,3-thiazol-4-yl}-2,6-di- tert -butylphenol; - 4- {2-[ -1-aminoethyl]-1,3-thiazol-4-yl} -2,6-di- tert -butylphenol; - 4-[2-(1-aminocyclopropyl)-1,3-thiazol-4-yl]-2,6-di- tert -butylphenol; - 4-[2-(1-aminocyclopentyl)-1,3-thiazol-4-yl]-2,6-di- tert -butylphenol;
Apparatus for forming a predetermined collation of rod shaped articles, in particular smoking articles, comprising a feeder arrangement, a pocket (3,4,5), the pocket being adapted to house a predetermined number of rod shaped articles (13,14,15) in the predetermined collation, wherein in the predetermined collation each rod shaped article has a predetermined position within the pocket, a hopper with a plurality of hopper vanes, wherein each hopper vane is at least associated to one predetermined position in the pocket, wherein the feeder arrangement comprises: - a first feeder being adapted to provide a first subgroup of rod shaped articles of a first type to a first subset of hopper vanes, the first subgroup of the rod shaped articles being a first part of the predetermined collation, - a second feeder being adapted to provide a second subgroup of rod shaped articles of a second type to a second subset of hopper vanes, the second subgroup of the rod shaped articles being a second part of the predetermined collation, - a third feeden being adapted to provide a third subgroup of rod shaped articles of a third type to a third subset of hopper vanes, the third subgroup of the rod shaped articles being a third part of the predetermined collation, wherein the second feeder is arranged in between the first feeder and the third feeder, and wherein at least the first type of rod shaped articles is different from the second type of rod shaped articles and wherein at least the second type of rod shaped articles is different from the third type of rod shaped articles. - a first feeder being adapted to provide a first subgroup of rod shaped articles of a first type to a first subset of hopper vanes, the first subgroup of the rod shaped articles being a first part of the predetermined collation, - a second feeder being adapted to provide a second subgroup of rod shaped articles of a second type to a second subset of hopper vanes, the second subgroup of the rod shaped articles being a second part of the predetermined collation, - a third feeden being adapted to provide a third subgroup of rod shaped articles of a third type to a third subset of hopper vanes, the third subgroup of the rod shaped articles being a third part of the predetermined collation,