mhurhangee/ep-ind-claims huggingface dataset:
A refrigerator comprising: a cabinet provided with a storage compartment; an inner case to define an appearance of the storage compartment; a first door pivotally mounted to the cabinet, to open or close one side of the storage compartment; and a second door pivotally mounted to the cabinet, to open or close the other side of the storage compartment, the second door is provided with a pillar rotatable to come into contact with the first door, wherein the pillar is spaced apart from a top wall of the inner case and a bottom wall of the inner case, to be prevented from coming into contact with the inner case when the second door is maintained to seal the storage compartment, characterized in that the pillar is configured to rotate toward the second door to a folded state when the first door opens the storage compartment under a condition that the second door seals the storage compartment. a cabinet provided with a storage compartment; an inner case to define an appearance of the storage compartment; a first door pivotally mounted to the cabinet, to open or close one side of the storage compartment; and a second door pivotally mounted to the cabinet, to open or close the other side of the storage compartment, the second door is provided with a pillar rotatable to come into contact with the first door, wherein the pillar is spaced apart from a top wall of the inner case and a bottom wall of the inner case, to be prevented from coming into contact with the inner case when the second door is maintained to seal the storage compartment, characterized in that the pillar is configured to rotate toward the second door to a folded state when the first door opens the storage compartment under a condition that the second door seals the storage compartment.
A method of operating a wind turbine with a rotor and a rotating device (20, 22, 24) connected to the rotor, wherein a rotor speed (n R) and a rotating device speed (n) are related to one another by a predeterminable transmission ratio, wherein the rotating device speed (n) is determined, wherein a speed measurement value (rpm i) is detected in order to determine the rotating device speed (n), characterised in that the speed measurement value (rpm i) is corrected with a correction value (rpm i,c), which is variable over time so that the determined rotating device speed (rpm i,f) is produced, wherein the determined rotating device speed (rpm i,f) is stored as an actual value in a control device of the wind turbine, wherein in order to determine the correction value (rpm i,c) of the speed measurement value (rpm i) a difference or a quotient of the speed measurement value (rpm i) to an average value ( rpm i) of the speed measurement value is formed.
A method for assembling a tank comprising: providing a first shell and a second shell; putting edges of said first and second shells into contact with each other and mutually connecting said edges such that said shells together form a container delimiting an internal volume; providing said first shell with a first connecting member extending inwardly from an inner surface of said first shell, said first connecting member being provided with a hole; characterized in that it comprises a step consisting in after said edges of said first and second shells are put into contact with each other, connecting said first connecting member to said second shell by inserting a pin shaped element through a hole in said second shell and said hole in said first connecting member, such that relative mutual movement between said first connecting member and said second shell is prevented and that the pin shaped element and the connecting member form an angle. providing a first shell and a second shell; putting edges of said first and second shells into contact with each other and mutually connecting said edges such that said shells together form a container delimiting an internal volume; providing said first shell with a first connecting member extending inwardly from an inner surface of said first shell, said first connecting member being provided with a hole; characterized in that it comprises a step consisting in after said edges of said first and second shells are put into contact with each other, connecting said first connecting member to said second shell by inserting a pin shaped element through a hole in said second shell and said hole in said first connecting member, such that relative mutual movement between said first connecting member and said second shell is prevented and that the pin shaped element and the connecting member form an angle.
An electrochemical deposition apparatus, comprising: a. a support structure; b. a first electrode mount connected to the support structure and comprising a working electrode; c. a second electrode mount connected to the support structure and comprising a counter electrode; and d. a deposition chamber frame configured to receive a deposition solution and disposed proximate to the first and second electrode mounts (20, 30), the deposition chamber frame comprising: i. a first aperture portion configured to face the first electrode mount, the first aperture portion comprising a first aperture and a conductive perimeter element configured to be sealed off from the deposition solution; and ii. a second aperture portion configured to face the second electrode mount, the second aperture portion comprising a second aperture that is at least twice as large as the first aperture; wherein the working electrode is disposed proximate to the first aperture and the counter electrode is disposed proximate to the second aperture, wherein the deposition chamber frame is disposed within the support structure and comprises a cavity configured to receive a deposition solution, the cavity comprising the first aperture portion and the second aperture portion; wherein the cavity comprises a telescoped cavity, a tapered cavity, or a combination thereof; and wherein the deposition chamber frame, the working electrode, and the counter electrode combine to form the electroplating vessel. a. a support structure; b. a first electrode mount connected to the support structure and comprising a working electrode; c. a second electrode mount connected to the support structure and comprising a counter electrode; and d. a deposition chamber frame configured to receive a deposition solution and disposed proximate to the first and second electrode mounts (20, 30), the deposition chamber frame comprising: i. a first aperture portion configured to face the first electrode mount, the first aperture portion comprising a first aperture and a conductive perimeter element configured to be sealed off from the deposition solution; and ii. a second aperture portion configured to face the second electrode mount, the second aperture portion comprising a second aperture that is at least twice as large as the first aperture; i. a first aperture portion configured to face the first electrode mount, the first aperture portion comprising a first aperture and a conductive perimeter element configured to be sealed off from the deposition solution; and ii. a second aperture portion configured to face the second electrode mount, the second aperture portion comprising a second aperture that is at least twice as large as the first aperture;
Method for diagnosing in vitro a rhinovirus infection caused by rhinovirus strains showing cross-reactivity with rhinovirus strain 89 or 14 in a mammal comprising the steps of: - providing an antibody comprising sample of a mammal, - contacting said sample with at least one peptide consisting of a minimum of 8 and a maximum of 50 amino acid residues comprising amino acid residues 1 to 8 of a rhinovirus capsid protein VP1 of rhinovirus strain 89 or rhinovirus strain 14, - diagnosing a rhinovirus infection when the binding of antibodies to said at least one peptide is detected. - providing an antibody comprising sample of a mammal, - contacting said sample with at least one peptide consisting of a minimum of 8 and a maximum of 50 amino acid residues comprising amino acid residues 1 to 8 of a rhinovirus capsid protein VP1 of rhinovirus strain 89 or rhinovirus strain 14, - diagnosing a rhinovirus infection when the binding of antibodies to said at least one peptide is detected.
A non-transitory computer-readable storage medium for storing an image compression program, the image compression program causing a processor to execute a process, the process comprising: executing first processing that includes acquiring image data of an image captured by an imaging device mounted to a moving vehicle characterized by executing second processing that includes setting a segmented region in a reference image corresponding to an image to be compressed and encoded, the segmented region including a central segmented region (E, F, G, H) that includes the center point of the reference image and the center point being a contact point of an optical axis of the imaging device and an imaging element in the imaging device incident to the image; executing third processing that includes enlarging the reference image so that a magnification rate of a region not including the central segmented region (E, F, G, H) is greater than a magnification rate of the central segmented region (E, F, G, H); executing fourth processing that includes generating a predictive image in accordance with the enlarged reference image; and executing fifth processing that includes compressing and encoding image data of the image to be encoded in accordance with the generated predictive image. executing first processing that includes acquiring image data of an image captured by an imaging device mounted to a moving vehicle characterized by executing second processing that includes setting a segmented region in a reference image corresponding to an image to be compressed and encoded, the segmented region including a central segmented region (E, F, G, H) that includes the center point of the reference image and the center point being a contact point of an optical axis of the imaging device and an imaging element in the imaging device incident to the image; executing third processing that includes enlarging the reference image so that a magnification rate of a region not including the central segmented region (E, F, G, H) is greater than a magnification rate of the central segmented region (E, F, G, H); executing fourth processing that includes generating a predictive image in accordance with the enlarged reference image; and executing fifth processing that includes compressing and encoding image data of the image to be encoded in accordance with the generated predictive image.
A driving apparatus for an electric vehicle, comprising: a motor including a rotor, on which a field coil is wound, and a stator, on which an armature coil is wound; an engine configured to selectively rotate the rotor; a first battery configured to drive the motor or configured to be chargeable by the motor; a second battery configured to be chargeable by the motor and having a charging voltage lower than that of the first battery; a motor controller configured to selectively charge the first battery or the second battery; and characterized in that the motor controller includes an inverter circuit connected to the armature coil and a field current controller connected to the field coil, and the field current controller includes a diode and a control switching element; and the motor controller is configured to control a field current value applied to the field coil using a field current controller connected to the field coil based on at least one of residual quantities of the first battery and the second battery and a driving state of the engine, wherein the driving apparatus further comprises a first switching element provided between the control switching element and the first battery; and a fifth switching element provided between the field coil and the second battery, and wherein, when the second battery is charged by the first battery in a state in which the engine is stopped, the motor controller turns the first and fifth switching elements (210 and 250) on and performs pulse width modulation control with respect to the control switching element to control the field current value. a motor including a rotor, on which a field coil is wound, and a stator, on which an armature coil is wound; an engine configured to selectively rotate the rotor; a first battery configured to drive the motor or configured to be chargeable by the motor; a second battery configured to be chargeable by the motor and having a charging voltage lower than that of the first battery; a motor controller configured to selectively charge the first battery or the second battery; and characterized in that the motor controller includes an inverter circuit connected to the armature coil and a field current controller connected to the field coil, and the field current controller includes a diode and a control switching element; and the motor controller is configured to control a field current value applied to the field coil using a field current controller connected to the field coil based on at least one of residual quantities of the first battery and the second battery and a driving state of the engine, wherein the driving apparatus further comprises a first switching element provided between the control switching element and the first battery; and a fifth switching element provided between the field coil and the second battery, and wherein, when the second battery is charged by the first battery in a state in which the engine is stopped, the motor controller turns the first and fifth switching elements (210 and 250) on and performs pulse width modulation control with respect to the control switching element to control the field current value.
A functional powdery product for use in external dermatological agents, which product comprises one or more members selected from the group consisting of vitamin glycosides bound to the surface of a carrier in the form of a sphere, porous sphere, plate, or fiber via hydrophilic bonding, ionic bonding, adhesion, chemical bonding, or a combination thereof; said vitamin glycoside(s) being one or more members selected from the group consisting of vitamin A glycoside, vitamin B glycoside, niacin glycoside, pantothenic acid glycoside, ascorbic acid 2-glucoside, vitamin E glycoside, quercetin glycoside, hesperetin glycoside, naringenin glycoside, esculetin glycoside, and salts thereof; and said carrier being cellulose powder or silk powder; wherein the functional powdery product has an average particle size of 0.01 to 30 μm; and wherein the total amount of said vitamin glycoside(s) is in the range of 0.01 to 30% by weight to the total amount of said functional powdery product.
System comprising: a coil transport vehicle with a pallet receiver for reception of a coil transport pallet; and the coil transport pallet for transporting a wound coil, with a support device for temporary support of the wound coil, with a coupling unit for coupling to the coil transport vehicle and with a passage opening, characterised in that the coil transport vehicle comprises a pressing device with a presser element, which is mounted on the coil transport vehicle and which is guided from below through the passage opening of the coil transport pallet and displaceable relative to the coil transport vehicle, for pressing at least one winding layer against the wound coil. a coil transport vehicle with a pallet receiver for reception of a coil transport pallet; and the coil transport pallet for transporting a wound coil, with a support device for temporary support of the wound coil, with a coupling unit for coupling to the coil transport vehicle and with a passage opening, characterised in that the coil transport vehicle comprises a pressing device with a presser element, which is mounted on the coil transport vehicle and which is guided from below through the passage opening of the coil transport pallet and displaceable relative to the coil transport vehicle, for pressing at least one winding layer against the wound coil.
An optical apparatus, comprising: a pixelated panel display; collimating means configured for collimating at least a portion of divergent light from each pixel on the display into a collimated beam and outputting a plurality of diverging light beams; first light expanding means configured for expanding the diverging light beams in a first dimension, the first light expanding means comprising an entrance face, an end face, an upper face, a lower face and first and second side faces (35, 36), wherein the upper face, lower face and first and second side faces (35, 36) extend between the entrance face and the end face and wherein the lower face and the upper face diverge from one another, in the first dimension, as they extend from the entrance face towards the end face, and for providing diverging light that diverges in the first dimension; and redirecting means configured for redirecting diverging light, received from the first light expanding means, to produce converging light that converges in the first dimension; and second light expanding means configured for expanding the converging light in a second dimension, substantially orthogonal to the first dimension, comprising an in-coupling portion configured to receive the converging light from the redirecting means, and an out-coupling portion configured to output light to a user. a pixelated panel display; collimating means configured for collimating at least a portion of divergent light from each pixel on the display into a collimated beam and outputting a plurality of diverging light beams; first light expanding means configured for expanding the diverging light beams in a first dimension, the first light expanding means comprising an entrance face, an end face, an upper face, a lower face and first and second side faces (35, 36), wherein the upper face, lower face and first and second side faces (35, 36) extend between the entrance face and the end face and wherein the lower face and the upper face diverge from one another, in the first dimension, as they extend from the entrance face towards the end face, and for providing diverging light that diverges in the first dimension; and redirecting means configured for redirecting diverging light, received from the first light expanding means, to produce converging light that converges in the first dimension; and second light expanding means configured for expanding the converging light in a second dimension, substantially orthogonal to the first dimension, comprising an in-coupling portion configured to receive the converging light from the redirecting means, and an out-coupling portion configured to output light to a user.
A temperature curing method of curing ink on an object, comprising: capturing thermal image data with at least one thermal-imaging sensor comprising an infrared sensor directing at an object that is configured to image thermal image of the object within a field of view; applying radiant heat with at least one heating element that is configured to generate heat energy with at least one heating element to heat the object; and controlling the at least one heating element in response to said at least one thermal imaging sensor as a function of the thermal radiation of the object detected by the imaging sensor while the object is being heated and controlling said at least one heating element to heat the surface of the object to a particular radiation level, characterized in that said at least one heating element comprises a plurality of heating elements said heating elements are within the field of view of the imaging sensor between the imaging sensor and the object shielding said heating elements from said at least one thermal imaging sensor with a plurality of shields between said at least one thermal imaging sensor and said heating elements. capturing thermal image data with at least one thermal-imaging sensor comprising an infrared sensor directing at an object that is configured to image thermal image of the object within a field of view; applying radiant heat with at least one heating element that is configured to generate heat energy with at least one heating element to heat the object; and controlling the at least one heating element in response to said at least one thermal imaging sensor as a function of the thermal radiation of the object detected by the imaging sensor while the object is being heated and controlling said at least one heating element to heat the surface of the object to a particular radiation level, characterized in that said at least one heating element comprises a plurality of heating elements said heating elements are within the field of view of the imaging sensor between the imaging sensor and the object shielding said heating elements from said at least one thermal imaging sensor with a plurality of shields between said at least one thermal imaging sensor and said heating elements.
A dosing means for dosing the materials to be used, and especially coffee beans, where the amount of the materials to be taken may be changed, comprising; - at least one external body comprising at least one housing one end of which is open and the other is closed, and which has a hollow, circular cross-section, at least one inlet opening for receiving materials, at least one outlet opening for discharging the materials, - at least one internal body having at least one gap suitable for receiving the materials therein and at least one opening for allowing access to the said gap which is suitable to enter the housing and rotate therein, - the external body having at least one shaft hole on the closed end of the housing, which is suitable for a shaft to pass through, - the internal body having a hollow, circular cross-section, one end of which is open and the other is closed, - at least one limiter having at least one head which is suitable to enter the said gap and move, therein, towards the closed end of the internal body, and at least one shaft suitable for passing through the shaft hole, characterized by - the limiter having at least one magnet. - at least one external body comprising at least one housing one end of which is open and the other is closed, and which has a hollow, circular cross-section, at least one inlet opening for receiving materials, at least one outlet opening for discharging the materials, - at least one internal body having at least one gap suitable for receiving the materials therein and at least one opening for allowing access to the said gap which is suitable to enter the housing and rotate therein, - the external body having at least one shaft hole on the closed end of the housing, which is suitable for a shaft to pass through, - the internal body having a hollow, circular cross-section, one end of which is open and the other is closed, - at least one limiter having at least one head which is suitable to enter the said gap and move, therein, towards the closed end of the internal body, and at least one shaft suitable for passing through the shaft hole, characterized by - the limiter having at least one magnet.
An injectable product comprising pharmaceutical compositions containing FSH and hCG suitable for administration separately or together, wherein the amount of FSH and hCG is selected from the group consisting of: 50 IU FSH and 100 IU hCG; 50 IU FSH and 200 IU hCG; 75 IU FSH and 25 IU hCG; 75 IU FSH and 50 IU hCG; 75 IU FSH and 75 IU hCG; 75 IU FSH and 100 IU hCG; 150 IU FSH and 10 IU hCG; 150 IU FSH and 25 IU hCG; 150 IU FSH and 75 IU hCG; and 150 IU FSH and 100 IU hCG.