mhurhangee/ep-ind-claims huggingface dataset:
A refrigerator, comprising: a cabinet, in which are defined a cooling chamber at a lower portion and a left-side first storage compartment and a right-side second storage compartment which are spaced side by side above the cooling chamber; and an evaporator, arranged in the cooling chamber and configured to cool an airflow entering the cooling chamber to form a cooled airflow, wherein at least one first return air inlet communicated with the cooling chamber is formed in a left sidewall of the left-side first storage compartment such that a return airflow of the left-side first storage compartment enters the cooling chamber to be cooled via the first return air inlet; and at least one second return air inlet communicated with the cooling chamber is formed in a right sidewall of the right-side second storage compartment such that a return airflow of the right-side second storage compartment enters the cooling chamber to be cooled via the second return air inlet, characterized in that a water pan, arranged below the evaporator and having a first inclined portion, a second inclined portion, and a water outlet formed at a bottom junction of the first inclined portion and the second inclined portion, wherein the evaporator has a first evaporator portion abutting on the first inclined portion and a second evaporator portion abutting on the second inclined portion, wherein a top of the first inclined portion is arranged close to the first return air inlet; and a top of the second inclined portion is arranged close to the second return air inlet. a cabinet, in which are defined a cooling chamber at a lower portion and a left-side first storage compartment and a right-side second storage compartment which are spaced side by side above the cooling chamber; and an evaporator, arranged in the cooling chamber and configured to cool an airflow entering the cooling chamber to form a cooled airflow, wherein at least one first return air inlet communicated with the cooling chamber is formed in a left sidewall of the left-side first storage compartment such that a return airflow of the left-side first storage compartment enters the cooling chamber to be cooled via the first return air inlet; and at least one second return air inlet communicated with the cooling chamber is formed in a right sidewall of the right-side second storage compartment such that a return airflow of the right-side second storage compartment enters the cooling chamber to be cooled via the second return air inlet, characterized in that a water pan, arranged below the evaporator and having a first inclined portion, a second inclined portion, and a water outlet formed at a bottom junction of the first inclined portion and the second inclined portion, wherein the evaporator has a first evaporator portion abutting on the first inclined portion and a second evaporator portion abutting on the second inclined portion, wherein a top of the first inclined portion is arranged close to the first return air inlet; and a top of the second inclined portion is arranged close to the second return air inlet.
An induction cooker comprising: a main body forming an outer casing, and a top plate provided over an upper portion of the main body and on which a heating target is to be placed, wherein the main body includes an induction heating unit that performs induction heating on the heating target, wherein the induction heating unit includes a plurality of coils (31, 32a-32d, 7a-7d); a coil base (33,6) on which the plurality of coils (31, 32a-32d, 7a-7d) are provided; and an insulating member (34a-34d, 35a-35d, 8a-8d) provided on the coil base (33,6) and preventing adjacent ones of the coils from coming into contact with each other characterized in that the plurality of coils (31, 32a-32d) include a first coil wound in a disc shape; and a plurality of second coils (32a-32d) provided around the first coil and each having a concave portion in a part of an outer circumference thereof and a convex portion on a side thereof opposite the concave portion, wherein the concave portion extends along an outer circumference of the first coil, and the convex portion extends substantially parallel to the concave portion; wherein the insulating member (34a-34d, 35a-35d) prevents the first coil and the second coils (32a-32d) from coming into contact with each other with deformation of any of the second coils (32a-32d), and wherein the insulating member (34a-34d, 35a-35d) has a height reaching a level higher than upper coil surfaces of the first coil and each of the second coils (32a-32d). a main body forming an outer casing, and a top plate provided over an upper portion of the main body and on which a heating target is to be placed, wherein the main body includes an induction heating unit that performs induction heating on the heating target, wherein the induction heating unit includes a plurality of coils (31, 32a-32d, 7a-7d); a coil base (33,6) on which the plurality of coils (31, 32a-32d, 7a-7d) are provided; and an insulating member (34a-34d, 35a-35d, 8a-8d) provided on the coil base (33,6) and preventing adjacent ones of the coils from coming into contact with each other characterized in that the plurality of coils (31, 32a-32d) include a first coil wound in a disc shape; and a plurality of second coils (32a-32d) provided around the first coil and each having a concave portion in a part of an outer circumference thereof and a convex portion on a side thereof opposite the concave portion, wherein the concave portion extends along an outer circumference of the first coil, and the convex portion extends substantially parallel to the concave portion;
A medical device comprising: an elongate sheath (260, 310) comprising a rigid distal portion (280, 325) and a flexible proximal portion (275, 315, 320), the elongate sheath (260, 310) defining a first lumen (272, 450); an elongate instrument (265, 500) slidably disposed at least partially within the first lumen (272, 450), the elongate instrument (265, 500) comprising a flexible tubular proximal section (273, 510) and a rigid distal section (270, 505), the rigid distal section (270, 505) defining a second lumen (274, 512); an instrument handle coupled to a proximal end of the elongate instrument (265, 500); a sheath handle coupled to a proximal end of the elongate sheath (260, 310), the sheath handle configured to at least partially receive the instrument handle; and a holding mechanism coupled to the sheath handle, the holding mechanism being rotatable to engage the elongate instrument (265, 500) to selectively maintain the rigid distal section (270, 505) in a plurality of extended positions from the rigid distal portion (280,325) of the elongate sheath (260, 310), wherein the flexible tubular proximal section (273, 510) and the rigid distal section (270, 505) of the elongate instrument (265, 500) are extended from the elongate sheath (260, 310) at least when the elongate instrument (265, 500) is in a fully extended position. an elongate sheath (260, 310) comprising a rigid distal portion (280, 325) and a flexible proximal portion (275, 315, 320), the elongate sheath (260, 310) defining a first lumen (272, 450); an elongate instrument (265, 500) slidably disposed at least partially within the first lumen (272, 450), the elongate instrument (265, 500) comprising a flexible tubular proximal section (273, 510) and a rigid distal section (270, 505), the rigid distal section (270, 505) defining a second lumen (274, 512); an instrument handle coupled to a proximal end of the elongate instrument (265, 500); a sheath handle coupled to a proximal end of the elongate sheath (260, 310), the sheath handle configured to at least partially receive the instrument handle; and a holding mechanism coupled to the sheath handle, the holding mechanism being rotatable to engage the elongate instrument (265, 500) to selectively maintain the rigid distal section (270, 505) in a plurality of extended positions from the rigid distal portion (280,325) of the elongate sheath (260, 310), wherein the flexible tubular proximal section (273, 510) and the rigid distal section (270, 505) of the elongate instrument (265, 500) are extended from the elongate sheath (260, 310) at least when the elongate instrument (265, 500) is in a fully extended position.
A method for transmitting contents from a provider server to a mobile terminal device, whereby the contents comprise an authentication component that is encrypted in the provider server by means of a private encryption key and that can be checked by means of a digital certificate in order to authenticate the transmitted contents, characterized in that, in the provider server, information is received about several digital certificates that are stored in the mobile terminal device and that are used for checking data that is encrypted with an associated encryption key, in that the information is evaluated in the provider server, so that the provider server acquires knowledge about several digital certificates that are available in the mobile terminal device, and in that the provider server transmits the contents to the mobile terminal device in a second communication step as a function of the result of the evaluation of the received information.
A seismic isolation system comprising: a base plate (100, 602) having a top surface; a top plate (102, 604) positioned above the base plate (100, 602) and having a bottom surface; and a coating integrally formed with and at least partially covering one or more of the top surface of the base plate or the bottom surface of the top plate, wherein at least one of the top surface of the base plate or the bottom surface of the top plate includes a textured surface; characterized in that the coating is a silicone-epoxy coating and provides a coefficient of static and kinetic friction of 2% or 5% between the top plate (102, 604) and the base plate (100, 602) that prevents relative movement of the two plates with normal operation and yet allows the top plate (102,604) to move relative to the base plate (100, 602) during a seismic event. a base plate (100, 602) having a top surface; a top plate (102, 604) positioned above the base plate (100, 602) and having a bottom surface; and a coating integrally formed with and at least partially covering one or more of the top surface of the base plate or the bottom surface of the top plate, wherein at least one of the top surface of the base plate or the bottom surface of the top plate includes a textured surface; characterized in that the coating is a silicone-epoxy coating and provides a coefficient of static and kinetic friction of 2% or 5% between the top plate (102, 604) and the base plate (100, 602) that prevents relative movement of the two plates with normal operation and yet allows the top plate (102,604) to move relative to the base plate (100, 602) during a seismic event.
A propulsion system for an electric vehicle, comprising: - a first electric propulsion motor comprising a stator and a rotor able to rotate about an axis, this rotor having a first output shaft defining a first torque output of this first electric motor on one side of the stator and a second torque output of this first electric motor which output is arranged on another side of the stator, these two torque outputs (S1, S2) being axially opposed, - a second electric propulsion motor comprising a stator and a rotor able to rotate about an axis, this rotor having a second output shaft with at least one torque output (S1', S2'), - a first reducer able to receive the torque supplied on the first torque output of the first electric motor, where appropriate via a first selective or non-selective coupling system, this first reducer having a first reduction ratio, - a second reducer able to receive the torque supplied by the second electric motor, where appropriate via a second selective or non-selective coupling system, this second reducer having a second reduction ratio, and - a third coupling system, which may or may not be selective, for coupling the second torque output of the first electric motor to the torque output (S1', S2') of the second electric motor, the system being characterized in that it comprises a differential arranged in such a way as to receive at least one of: the torque passing via the first reducer, and the torque passing via the second reducer. - a first electric propulsion motor comprising a stator and a rotor able to rotate about an axis, this rotor having a first output shaft defining a first torque output of this first electric motor on one side of the stator and a second torque output of this first electric motor which output is arranged on another side of the stator, these two torque outputs (S1, S2) being axially opposed, - a second electric propulsion motor comprising a stator and a rotor able to rotate about an axis, this rotor having a second output shaft with at least one torque output (S1', S2'), - a first reducer able to receive the torque supplied on the first torque output of the first electric motor, where appropriate via a first selective or non-selective coupling system, this first reducer having a first reduction ratio, - a second reducer able to receive the torque supplied by the second electric motor, where appropriate via a second selective or non-selective coupling system, this second reducer having a second reduction ratio, and - a third coupling system, which may or may not be selective, for coupling the second torque output of the first electric motor to the torque output (S1', S2') of the second electric motor,
A sheet for three-dimensional molding which includes a base material with at least a surface protective layer laminated thereon, wherein the surface protective layer is formed of a cured product of a resin composition containing an ionizing radiation curable resin and inorganic particles having an average particle size of 100 nm or more, wherein the curing of the resin composition uses an amount of irradiation with ionizing radiation with which the crosslinking density of the surface protective layer is saturated, the content of the inorganic particles in the surface protective layer is 40% by mass or more, and the average particle size of the inorganic particles is in the range of 100 to 500 nm, wherein the average particle size of inorganic particles is defined as described in the description. the surface protective layer is formed of a cured product of a resin composition containing an ionizing radiation curable resin and inorganic particles having an average particle size of 100 nm or more, wherein the curing of the resin composition uses an amount of irradiation with ionizing radiation with which the crosslinking density of the surface protective layer is saturated, the content of the inorganic particles in the surface protective layer is 40% by mass or more, and the average particle size of the inorganic particles is in the range of 100 to 500 nm, wherein the average particle size of inorganic particles is defined as described in the description.
An X-ray imaging apparatus comprising: an X-ray source to generate X-rays and irradiate an object with the generated X-rays; a collimator to adjust an emission region of the X-rays generated from the X-ray source; an X-ray detection unit including an X-ray detector to detect X-rays having passed through the object to acquire X-ray data; characterized by a touch sensor, the touch sensor being disposed above the X-ray detector; a compression paddle to compress the object placed on the touch sensor; and a collimator control unit configured to calculate location and size of the compressed object based on an output value of the touch sensor, to determine an object region according to the location and size of the compressed object and to set an X-ray emission region corresponding to the object region. an X-ray source to generate X-rays and irradiate an object with the generated X-rays; a collimator to adjust an emission region of the X-rays generated from the X-ray source; an X-ray detection unit including an X-ray detector to detect X-rays having passed through the object to acquire X-ray data; characterized by a touch sensor, the touch sensor being disposed above the X-ray detector; a compression paddle to compress the object placed on the touch sensor; and a collimator control unit configured to calculate location and size of the compressed object based on an output value of the touch sensor, to determine an object region according to the location and size of the compressed object and to set an X-ray emission region corresponding to the object region.
A demodulation reference signal, DMRS, sending method, comprising: determining, by a terminal device, power of a DMRS; and sending, by the terminal device, the DMRS based on the determined power; characterized in that the determined power of the DMRS is a regular power, that is the power whose power boost value is 0 dB, when an uplink scheduling command associated with the DMRS is downlink control information, DCI, whose format is 0_0, an uplink transmission waveform is cyclic prefix-orthogonal frequency division multiplexing, CP-OFDM, and a quantity of symbols occupied in physical uplink shared channel, PUSCH, transmission is less than or equal to 2. determining, by a terminal device, power of a DMRS; and sending, by the terminal device, the DMRS based on the determined power; characterized in that the determined power of the DMRS is a regular power, that is the power whose power boost value is 0 dB, when an uplink scheduling command associated with the DMRS is downlink control information, DCI, whose format is 0_0, an uplink transmission waveform is cyclic prefix-orthogonal frequency division multiplexing, CP-OFDM, and a quantity of symbols occupied in physical uplink shared channel, PUSCH, transmission is less than or equal to 2.
An orthopedic joint system having an upper part and a lower part, which is mounted on the upper part such that it can be pivoted about a pivot pin, wherein the upper part and the lower part have arranged between them a hydraulic damper device, which has a piston which is mounted in a cylinder and has a piston rod, characterized in that the piston is mounted in a rotationally secured manner in the cylinder and that an insert, which can be adjusted via the piston rod and has a variable throttle gap, is arranged in the piston.
A method of increasing the number of cells with the characteristics of brown adipose tissue cells in a population of cells in vitro, the method comprising: contacting a population of cells comprising stem cell antigen-1 positive (Sca-1+) progenitor cells, wherein the population of progenitor cells comprises at least 60% Sca-1+ progenitor cells, in vitro with an effective amount of bone morphogenic protein -7 and, optionally, up to three of bone morphogenic protein -2, -4, or -6 or BMP-4 and, optionally, up to three of BMP-2, -6 or -7 for a time sufficient to increase the number of cells with the characteristics of brown adipose tissue cells in the population of cells; or genetically engineering the population of cells wherein the population of cells comprises stem cell antigen-1 positive (Sca - 1+) progenitor cells, wherein the population of progenitor cells comprises et least 60% Sca-1+ progenitor cells, to express bone morphogenic protein -7 and, optionally, up to three of bone morphogenic protein -2, -4, or -6 or BMP-4 and, optionally, up to three of BMP-2, -6 or -7 at a level sufficient to increase the number of cells with the characteristics of BAT cells in the population of cells. contacting a population of cells comprising stem cell antigen-1 positive (Sca-1+) progenitor cells, wherein the population of progenitor cells comprises at least 60% Sca-1+ progenitor cells, in vitro with an effective amount of bone morphogenic protein -7 and, optionally, up to three of bone morphogenic protein -2, -4, or -6 or BMP-4 and, optionally, up to three of BMP-2, -6 or -7 for a time sufficient to increase the number of cells with the characteristics of brown adipose tissue cells in the population of cells; or genetically engineering the population of cells wherein the population of cells comprises stem cell antigen-1 positive (Sca - 1+) progenitor cells, wherein the population of progenitor cells comprises et least 60% Sca-1+ progenitor cells, to express bone morphogenic protein -7 and, optionally, up to three of bone morphogenic protein -2, -4, or -6 or BMP-4 and, optionally, up to three of BMP-2, -6 or -7 at a level sufficient to increase the number of cells with the characteristics of BAT cells in the population of cells.
Multi-junction solar cell having at least four p-n junctions containing a first, rear germanium partial cell having a p-n junction, a second and third partial cell (4, 5) made from III-V semiconductors as well as at least one further, front-side partial cell made from III-V semiconductors, wherein the second partial cell has a lattice constant which is at least 1% larger than the lattice constant of all other partial cells, characterised in that the second partial cell is connected to the adjacent first germanium partial cell via a metamorphic buffer layer for the adjustment of the lattice constant of the adjacent partial cells and on the opposite side to the adjacent third partial cell via a wafer bonding connection.
A method of wireless communication performed by a user equipment, UE, comprising: determining a prioritization rule that indicates a relative priority for different uplink communications included in a group of uplink communications, wherein the group of uplink communications includes at least a first uplink communication and a second uplink communication to be transmitted by the UE using time-division multiplexing during a make-before-break handover procedure; and transmitting, based at least in part on the prioritization rule, the first uplink communication to a target base station and the second uplink communication to a source base station using time-division multiplexing during the make-before-break handover procedure. determining a prioritization rule that indicates a relative priority for different uplink communications included in a group of uplink communications, wherein the group of uplink communications includes at least a first uplink communication and a second uplink communication to be transmitted by the UE using time-division multiplexing during a make-before-break handover procedure; and transmitting, based at least in part on the prioritization rule, the first uplink communication to a target base station and the second uplink communication to a source base station using time-division multiplexing during the make-before-break handover procedure.