mhurhangee/ep-ind-claims huggingface dataset:
A refrigerator comprising an ice making compartment, the refrigerator further comprising: a body provided with a freezing compartment, a refrigerating compartment and the ice making compartment provided in the refrigerating compartment; an ice making unit including an ice making tray to produce ice in the ice making compartment; an ice storage container to store the ice made by the ice making unit; a refrigerant pipe protruding from a rear wall of the ice making compartment to supply cooling energy to the ice making compartment; said refrigerant pipe having a direct cooling section coupled to the ice making unit, and characterised in that the refrigerator further comprises an ice making compartment fan to circulate air of the ice making compartment causing the air to come into contact with at least one of the ice making unit and the refrigerant pipe (28, 28a), thereby promoting the heat exchanges, wherein the ice making unit comprises a drainage duct to collect water falling from the ice making tray or from the direct cooling section of the refrigerant pipe, and to guide the air of the ice making compartment circulated by the ice making compartment fan to pass through the ice making unit, wherein the ice making compartment comprises at least one suction passage connected to a suction side of the ice making compartment fan, and at least one discharge passage connected to a discharge side of the ice making compartment fan, wherein the ice making unit is in the at least one discharge passage. a body provided with a freezing compartment, a refrigerating compartment and the ice making compartment provided in the refrigerating compartment; an ice making unit including an ice making tray to produce ice in the ice making compartment; an ice storage container to store the ice made by the ice making unit; a refrigerant pipe protruding from a rear wall of the ice making compartment to supply cooling energy to the ice making compartment; said refrigerant pipe having a direct cooling section coupled to the ice making unit, and characterised in that the refrigerator further comprises an ice making compartment fan to circulate air of the ice making compartment causing the air to come into contact with at least one of the ice making unit and the refrigerant pipe (28, 28a), thereby promoting the heat exchanges, wherein the ice making unit comprises a drainage duct to collect water falling from the ice making tray or from the direct cooling section of the refrigerant pipe, and to guide the air of the ice making compartment circulated by the ice making compartment fan to pass through the ice making unit, wherein the ice making compartment comprises at least one suction passage connected to a suction side of the ice making compartment fan, and at least one discharge passage connected to a discharge side of the ice making compartment fan, wherein the ice making unit is in the at least one discharge passage.
A motor comprising: an axis defining an axial direction, the axial direction comprising an up and a down direction, a housing having a lateral side surface and a bottom surface; a stator disposed in the housing; a rotor disposed in the housing; a rotating shaft rotated along with the rotor; a holder coupled to the bottom surface of the housing; and a bearing disposed axially between the bottom surface and the holder, the bearing axially supporting the rotor and being restricted by the holder, the bottom surface of the housing comprising a first receiving part configured to support a lateral side of the bearing, and a first protruding part configured to support an upper end of the bearing, wherein a bent is formed between the first protruding part and the first receiving part, wherein the holder comprises a second protruding part configured to support a lower end of the bearing, characterized in that the bottom surface of the housing further comprises a first inclined part connecting the first receiving part and the lateral side surface of the housing, wherein a bent is formed between the first receiving part and the first inclined part, wherein the holder comprises a second inclined part contacting the first inclined part, wherein the first inclined part and the second inclined part are inclined with respect to a line perpendicular to the axial direction, so that the bottom surface of the housing protrudes downwardly. an axis defining an axial direction, the axial direction comprising an up and a down direction, a housing having a lateral side surface and a bottom surface; a stator disposed in the housing; a rotor disposed in the housing; a rotating shaft rotated along with the rotor; a holder coupled to the bottom surface of the housing; and a bearing disposed axially between the bottom surface and the holder, the bearing axially supporting the rotor and being restricted by the holder, the bottom surface of the housing comprising a first receiving part configured to support a lateral side of the bearing, and a first protruding part configured to support an upper end of the bearing, wherein a bent is formed between the first protruding part and the first receiving part, wherein the holder comprises a second protruding part configured to support a lower end of the bearing, characterized in that the bottom surface of the housing further comprises a first inclined part connecting the first receiving part and the lateral side surface of the housing, wherein a bent is formed between the first receiving part and the first inclined part, wherein the holder comprises a second inclined part contacting the first inclined part, wherein the first inclined part and the second inclined part are inclined with respect to a line perpendicular to the axial direction, so that the bottom surface of the housing protrudes downwardly.
System comprising an integrated electronic circuit for measuring a time constant of said integrated electronic circuit, said integrated electronic circuit being set up to receive a continuous analog input signal (V in), said integrated electronic circuit further comprising an analog/digital converter operated at a sampling frequency (F s), said analog/digital converter being set up to provide an output signal (Q s) of said said integrated electronic circuit, the system comprising a first hardware component, a second hardware component and a digital/analog converter, wherein the system further comprises an operational amplifier having an inverting terminal coupled to a first terminal of the first hardware component and to a first terminal of the second hardware component, a second terminal of the first hardware component being set up to receive said continuous analog input signal (V in), the system further comprising means for measuring the output signal of the integrated electronic circuit, the system further comprising means able to determine the value of the time constant on the basis of at least one measurement of the DC component of the output signal (Q s) of the integrated electronic circuit, the first hardware component comprising a resistive element and the second hardware component comprising a capacitive element, the system further comprising a switched capacitive device comprising the capacitive element, the switched capacitive device being comprised in said digital/analog converter and each of the two terminals of the switched capacitive device being coupled to a respective make/break switch (15, 16) coupled to earth, the switching of the switched capacitive device being operated at the sampling frequency (F s) of said analog/digital converter, the time constant being either the product or the inverse product of the resistance of the resistive element and the capacitance of the capacitive element.
A system comprising: a flow duct defining a flow passage and an axial direction, a radial direction, and a circumferential direction; a first sensor extending along the circumferential direction within the flow passage; and a second sensor extending along the circumferential direction within the flow passage; wherein the first sensor extends along the circumferential direction such that at least a portion of the first sensor physically overlaps the second sensor along the circumferential direction; wherein the first sensor and the second sensor define an overlap sensing region along the circumferential direction where the first sensor and the second sensor physically overlap one another along the circumferential direction; wherein the first sensor defines a first sensing region along the circumferential direction where the first sensor and the second sensor do not overlap; wherein the second sensor defines a second sensing region along the circumferential direction where the second sensor and the first sensor do not overlap; wherein the system further comprises a first operational component disposed within the flow passage and disposed at least partially within the overlap sensing region along the circumferential direction, and wherein the first operational component is positioned proximate the overlap sensing region along the axial direction and the radial direction. a flow duct defining a flow passage and an axial direction, a radial direction, and a circumferential direction; a first sensor extending along the circumferential direction within the flow passage; and a second sensor extending along the circumferential direction within the flow passage; wherein the first sensor extends along the circumferential direction such that at least a portion of the first sensor physically overlaps the second sensor along the circumferential direction; wherein the first sensor and the second sensor define an overlap sensing region along the circumferential direction where the first sensor and the second sensor physically overlap one another along the circumferential direction; wherein the first sensor defines a first sensing region along the circumferential direction where the first sensor and the second sensor do not overlap; wherein the second sensor defines a second sensing region along the circumferential direction where the second sensor and the first sensor do not overlap; wherein the system further comprises a first operational component disposed within the flow passage and disposed at least partially within the overlap sensing region along the circumferential direction, and wherein the first operational component is positioned proximate the overlap sensing region along the axial direction and the radial direction.
A method of cognitive mapping comprising the steps of; - determining a cognitive base line response for a cognitive function from a subject in response to the presentation of a task, - presenting the task to the subject again while stimulating an area of the brain with a magnetic field via a Transcranial Magnetic Stimulation = TMS coil device, - recording the subject's performance during stimulation with a microphone and/or camera, - comparing the subject's base line response to the task with the subject's recorded performance during stimulation, and - based on the comparison, determining if the area of the brain stimulated is involved in the cognitive function. - determining a cognitive base line response for a cognitive function from a subject in response to the presentation of a task, - presenting the task to the subject again while stimulating an area of the brain with a magnetic field via a Transcranial Magnetic Stimulation = TMS coil device, - recording the subject's performance during stimulation with a microphone and/or camera, - comparing the subject's base line response to the task with the subject's recorded performance during stimulation, and - based on the comparison, determining if the area of the brain stimulated is involved in the cognitive function.
A system for the stable integration of a self-inactivating lentiviral transfer vector into a packaging cell line wherein such system consists of a DNA fragment comprising, starting from the 5' end: i. The Inverted Terminal Repeat of the Adeno Associated Virus (AAV ITR) ii. A SIN lentiviral transfer vector iii. A constitutive promoter that regulates the expression of an antibiotic resistance gene iv. An antibiotic resistance gene v. The Inverted Terminal Repeat of the Adeno Associated Virus (AAV ITR) i. The Inverted Terminal Repeat of the Adeno Associated Virus (AAV ITR) ii. A SIN lentiviral transfer vector iii. A constitutive promoter that regulates the expression of an antibiotic resistance gene iv. An antibiotic resistance gene v. The Inverted Terminal Repeat of the Adeno Associated Virus (AAV ITR)
An illumination apparatus, comprising: light sources; a light guide plate which guides lights from the light sources; a housing which holds the light sources and the light guide plate; and an apparatus attachment part which is provided in a central portion of the housing, wherein the light sources are arranged around the apparatus attachment part, and the light guide plate is provided outside the apparatus attachment part and is arranged to face the housing and cover a front side of the light sources, and wherein the light guide plate includes a main light guide part which guides the lights from the light sources toward an outer periphery of the light guide plate and scatters and emits the lights to a surface of the main light guide part, the illumination apparatus being characterized in that the light guide plate further includes an auxiliary light guide part which is integrated with the main light guide part at an inner peripheral side of the main light guide part and guides and emits the lights from the light sources toward the central portion of the housing, wherein the auxiliary light guide part has an inner peripheral end which is located in the opposite side to the main light guide part and is provided to extend to approach the central portion of the housing, and wherein the auxiliary light guide part is inclined toward the central portion of the housing while forming an acute angle with the housing, and is formed to conform to a periphery of the apparatus attachment part. light sources; a light guide plate which guides lights from the light sources; a housing which holds the light sources and the light guide plate; and an apparatus attachment part which is provided in a central portion of the housing, wherein the light sources are arranged around the apparatus attachment part, and the light guide plate is provided outside the apparatus attachment part and is arranged to face the housing and cover a front side of the light sources, and wherein the light guide plate includes a main light guide part which guides the lights from the light sources toward an outer periphery of the light guide plate and scatters and emits the lights to a surface of the main light guide part, the illumination apparatus being characterized in that the light guide plate further includes an auxiliary light guide part which is integrated with the main light guide part at an inner peripheral side of the main light guide part and guides and emits the lights from the light sources toward the central portion of the housing, wherein the auxiliary light guide part has an inner peripheral end which is located in the opposite side to the main light guide part and is provided to extend to approach the central portion of the housing, and wherein the auxiliary light guide part is inclined toward the central portion of the housing while forming an acute angle with the housing, and is formed to conform to a periphery of the apparatus attachment part.
A method for producing frozen noodles comprising: a step of attaching a composition comprising xanthan gum and having a viscosity of from 30 to 2000 mPa·s at 60°C to cooked noodles obtained by cooking fresh noodles produced by a rolling noodle-manufacturing method, wherein the composition comprises no common salt; and a step of freezing the noodles to which the composition has attached. a step of attaching a composition comprising xanthan gum and having a viscosity of from 30 to 2000 mPa·s at 60°C to cooked noodles obtained by cooking fresh noodles produced by a rolling noodle-manufacturing method, wherein the composition comprises no common salt; and a step of freezing the noodles to which the composition has attached.
A method for cutting substrates comprising printed images by way of an automatic cutting device provided with means for the correction of alignment errors, said method comprising the steps of: i) Printing a plurality of images (IM1, IM2) on a substrate; ii) Printing a longitudinal cutting mark close to an edge of said substrate and parallel to edges of said images (IM1, IM2) in a longitudinal or feeding direction and a plurality of transverse cutting marks perpendicular to said longitudinal cutting mark, said transverse cutting marks being arranged between consecutive images (IM1, IM2) printed on said substrate; iii) Providing an automatic cutting device having a first optical unit configured for the detection of said transverse cutting marks; iv) Feeding the substrate into said automatic cutting device; characterized in that said longitudinal cutting mark is printed such that it has a discontinuity arranged upstream of each transverse cutting mark with respect to said feeding direction, said discontinuity being spaced from the respective transverse cutting mark by a predefined known measure (d); in that the automatic cutting device is provided with a second optical unit configured for the detection of said discontinuities in the longitudinal cutting mark; and in that a control system of the automatic cutting device is configured such that, when the second optical unit detects the discontinuities of the longitudinal cutting mark, the first optical unit is selectively activated for the detection of transverse cut marks printed on the substrate. i) Printing a plurality of images (IM1, IM2) on a substrate; ii) Printing a longitudinal cutting mark close to an edge of said substrate and parallel to edges of said images (IM1, IM2) in a longitudinal or feeding direction and a plurality of transverse cutting marks perpendicular to said longitudinal cutting mark, said transverse cutting marks being arranged between consecutive images (IM1, IM2) printed on said substrate; iii) Providing an automatic cutting device having a first optical unit configured for the detection of said transverse cutting marks; iv) Feeding the substrate into said automatic cutting device;
A method of performing a navigation calculation on the basis of a hybrid inertial navigation system on board a vehicle, the navigation system being arranged to perform a first navigation calculation, hybrid, using a Kalman filter that receives inertial navigation data and non-inertial navigation data, the method being characterized in that it comprises the steps of: - using the hybrid inertial navigation system to perform an inertial second navigation calculation on the basis of the inertial navigation data; - calculating in real time a difference (ε) between the first navigation calculation and the second navigation calculation, and subjecting the difference to lowpass filtering having a convergence time longer than a period of the Kalman filter and shorter than the Schuler period; and - using the filtered difference to correct the second navigation calculation. - using the hybrid inertial navigation system to perform an inertial second navigation calculation on the basis of the inertial navigation data; - calculating in real time a difference (ε) between the first navigation calculation and the second navigation calculation, and subjecting the difference to lowpass filtering having a convergence time longer than a period of the Kalman filter and shorter than the Schuler period; and - using the filtered difference to correct the second navigation calculation.
A method for diagnosing or identifying advanced colorectal cancer in vitro in a subject, comprising: (a) determining the level or amount of Ang-2 in a sample of the body fluid of said subject; and (b) comparing the level or amount determined in step (a) to a reference value, wherein an increase in the level or amount relative to the reference value is indicative for advanced CRC in said subject. (a) determining the level or amount of Ang-2 in a sample of the body fluid of said subject; and (b) comparing the level or amount determined in step (a) to a reference value,
A refrigerator comprising: a main body including a storage chamber; a door to open or close the storage chamber, the door having a door panel to form an inside surface of the door facing the storage chamber when the door is closed and side surface chassis to form an opposite side surfaces of the door, the door panel including a gasket mounting portion at an edge portion of the door panel, the gasket mounting portion having a groove recessed from the inside surface of the door panel; a gasket mounted to the gasket mounting portion to seal the storage chamber when the door is closed and fixed by the door panel; and air exhaust holes formed at the groove and covered by the gasket, the air exhaust holes being configured for discharging air from within the door. a main body including a storage chamber; a door to open or close the storage chamber, the door having a door panel to form an inside surface of the door facing the storage chamber when the door is closed and side surface chassis to form an opposite side surfaces of the door, the door panel including a gasket mounting portion at an edge portion of the door panel, the gasket mounting portion having a groove recessed from the inside surface of the door panel; a gasket mounted to the gasket mounting portion to seal the storage chamber when the door is closed and fixed by the door panel; and air exhaust holes formed at the groove and covered by the gasket, the air exhaust holes being configured for discharging air from within the door.
A damper assembly (60;160) comprising: a first housing (62;162) adjacent to a second housing (64;164) that supports a rotatable gas turbine engine component, wherein the first housing (62;162) defines first and second fluid passages (76,78;176,178), the first fluid passage (76;176) is coupled to a first valve (80;180), one of the first and second housings (62,64;162,164) defines first, second and third annular grooves (84A,84B,84C;184A,184B,184C) that receive respective first, second and third seal members (86A,86B,86C;186A,186B,186C), and the first and second housings (62,64;162,164) define a first annular damper cavity (88A;188A) between the first and second seal members (86A,86B;186A,186B) and in fluid communication with the first fluid passage (76;176), and define a second annular damper cavity (88B;188B) between the second and third seal members (86B,86C;186B,186C) and in fluid communication with the second fluid passage (78;178), characterised in that: the second fluid passage (78;178) is coupled to a second valve (82;182), and the first and second valves (80,82;180,182) are movable to define at least first and second operating modes, the first operating mode being a high damping mode, and the second operating mode being a non-damping mode.