mhurhangee/patent-ind-claim-en huggingface dataset:
A refrigerator comprising: a main body in which a refrigerating compartment and a freezing compartment are defined; a refrigerating compartment door to open or close the refrigerating compartment ; a freezing compartment door to open or close the freezing compartment ; a water supply passage connected to a water supply source outside the main body ; a water supply valve to open or close the water supply passage ; a filter unit arranged in the refrigerating compartment ; a water tank disposed in the refrigerating compartment ; a first cold water passage branched at a rear end of the filter unit , the first cold water passage being connected to a flow adjustment valve via the water tank ; a first common passage connected to the flow adjustment valve at a rear end of the first cold water passage to pass through a door hinge of the refrigerating compartment ; a first purified water passage branched at a rear end of the filter unit , the first purified water passage being connected to the first common passage ; a second cold water passage connected to the first common passage and in which a flow of cold water is controlled by a cold water adjustment valve mounted on the refrigerating compartment door ; and a second purified water passage connected to the first common passage and in which a flow of the purified water is controlled by a purified water adjustment valve mounted on the refrigerating compartment door . a main body in which a refrigerating compartment and a freezing compartment are defined; a refrigerating compartment door to open or close the refrigerating compartment ; a freezing compartment door to open or close the freezing compartment ; a water supply passage connected to a water supply source outside the main body ; a water supply valve to open or close the water supply passage ; a filter unit arranged in the refrigerating compartment ; a water tank disposed in the refrigerating compartment ; a first cold water passage branched at a rear end of the filter unit , the first cold water passage being connected to a flow adjustment valve via the water tank ; a first common passage connected to the flow adjustment valve at a rear end of the first cold water passage to pass through a door hinge of the refrigerating compartment ; a first purified water passage branched at a rear end of the filter unit , the first purified water passage being connected to the first common passage ; a second cold water passage connected to the first common passage and in which a flow of cold water is controlled by a cold water adjustment valve mounted on the refrigerating compartment door ; and a second purified water passage connected to the first common passage and in which a flow of the purified water is controlled by a purified water adjustment valve mounted on the refrigerating compartment door .
A neutron grid , comprising: a grid including: a plurality of spacers configured to pass at least a part of first neutrons from a target ; and a plurality of absorbers configured to absorb at least a part of second neutrons to be scattered thorough the target , the spacers and the absorbers being alternately arranged along a first direction and extending along a second direction intersecting with the first direction; and a pair of covers configured to pass at least a part of the first neutrons and at least a part of the second neutrons sandwiching the grid along a third direction intersecting with the first and second directions, wherein the spacers contain at least one selected from the group consisting of Si, w, Al 2 O 3 , AlN, SiC and Y 2 O 3 , wherein the absorbers contain Ta, wherein a thermal expansion coefficient difference between one of the spacers and one of the absorbers is ±9 × 10 -6 /°C or less, or Young's modulus of one of the spacers is 100 GPa or more. a grid including: a plurality of spacers configured to pass at least a part of first neutrons from a target ; and a plurality of absorbers configured to absorb at least a part of second neutrons to be scattered thorough the target , the spacers and the absorbers being alternately arranged along a first direction and extending along a second direction intersecting with the first direction; and a pair of covers configured to pass at least a part of the first neutrons and at least a part of the second neutrons sandwiching the grid along a third direction intersecting with the first and second directions, wherein the spacers contain at least one selected from the group consisting of Si, w, Al 2 O 3 , AlN, SiC and Y 2 O 3 , wherein the absorbers contain Ta, wherein a thermal expansion coefficient difference between one of the spacers and one of the absorbers is ±9 × 10 -6 /°C or less, or Young's modulus of one of the spacers is 100 GPa or more.
A method for transmitting control information in a base station of a wireless communication system, the method comprising: transmitting, to a terminal, periodic information of a control channel resource region carrying control channels; determining a number of physical downlink control channel, PDCCH candidates for each of a plurality of PDCCH modulation and coding schemes, MCSs, according to the periodic information, wherein each of the plurality of PDCCH MCSs represents a code rate and corresponds to a different number of control channel elements, CCEs, constituting single PDCCH; transmitting, to the terminal, by upper layer signaling, a plurality of numbers of PDCCHs to be monitored by the terminal according to each PDCCH MCS; determining a set of control channel candidates to be monitored by the terminal based on the number of PDCCH candidates for each PDCCH MCS determined according to the periodic information, the plurality of numbers of PDCCHs and a random number generation function using an identifier, ID, of the terminal as a variable; selecting at least one control channel candidate from among the set of control channel candidates; and transmitting the control information to the terminal through the selected at least one control channel candidate in the control channel resource region. transmitting, to a terminal, periodic information of a control channel resource region carrying control channels; determining a number of physical downlink control channel, PDCCH candidates for each of a plurality of PDCCH modulation and coding schemes, MCSs, according to the periodic information, wherein each of the plurality of PDCCH MCSs represents a code rate and corresponds to a different number of control channel elements, CCEs, constituting single PDCCH; transmitting, to the terminal, by upper layer signaling, a plurality of numbers of PDCCHs to be monitored by the terminal according to each PDCCH MCS; determining a set of control channel candidates to be monitored by the terminal based on the number of PDCCH candidates for each PDCCH MCS determined according to the periodic information, the plurality of numbers of PDCCHs and a random number generation function using an identifier, ID, of the terminal as a variable; selecting at least one control channel candidate from among the set of control channel candidates; and transmitting the control information to the terminal through the selected at least one control channel candidate in the control channel resource region.
Apparatus comprising: a stent configured to be placed inside an aorta of a subject, the stent comprising one or more electrodes , control circuitry , and a first antenna coupled thereto; and a second antenna configured to be placed on the subject, the second antenna being configured to transmit an electrical signal to the first antenna via inductive coupling, characterized in that : the second antenna is configured, when placed on the subject, to extend at least from above a left clavicle of the subject to below a jugular notch of the subject and from below the subject's jugular notch to above a right clavicle of the subject; and the second antenna is shaped such that the antenna has an L-shaped projection in a sagittal plane of the subject, and an angle (γ) between two legs of the L-shaped projection is 80-160 degrees when the second antenna is placed on a flat surface. a stent configured to be placed inside an aorta of a subject, the stent comprising one or more electrodes , control circuitry , and a first antenna coupled thereto; and a second antenna configured to be placed on the subject, the second antenna being configured to transmit an electrical signal to the first antenna via inductive coupling, characterized in that : the second antenna is configured, when placed on the subject, to extend at least from above a left clavicle of the subject to below a jugular notch of the subject and from below the subject's jugular notch to above a right clavicle of the subject; and the second antenna is shaped such that the antenna has an L-shaped projection in a sagittal plane of the subject, and an angle (γ) between two legs of the L-shaped projection is 80-160 degrees when the second antenna is placed on a flat surface. the second antenna is configured, when placed on the subject, to extend at least from above a left clavicle of the subject to below a jugular notch of the subject and from below the subject's jugular notch to above a right clavicle of the subject; and the second antenna is shaped such that the antenna has an L-shaped projection in a sagittal plane of the subject, and an angle (γ) between two legs of the L-shaped projection is 80-160 degrees when the second antenna is placed on a flat surface.
A process for coating a substrate , comprising - providing at least two magnetron cathodes in a vacuum chamber , - of which a first cathode is provided with a sputtering target of a first metal composition comprising predominantly aluminum as a first metal, - and a second cathode is provided with a sputtering target of a second metal composition comprising at least a 50 at.-% portion of a second metal selected from groups IV A - VI A of the periodic table, - generating a plasma in said vacuum chamber by supplying electrical power to said cathodes such that said targets are sputtered, - where said electrical power is supplied to said first cathode as pulsed electrical power according to high power impulse magnetron sputtering with a first peak current density, - and where said electrical power is supplied to said second cathode with a second peak current density lower than said first peak current density, - arranging said substrate in said vacuum chamber such that particles from said plasma deposit onto said substrate forming a coating. - providing at least two magnetron cathodes in a vacuum chamber , - of which a first cathode is provided with a sputtering target of a first metal composition comprising predominantly aluminum as a first metal, - and a second cathode is provided with a sputtering target of a second metal composition comprising at least a 50 at.-% portion of a second metal selected from groups IV A - VI A of the periodic table, - of which a first cathode is provided with a sputtering target of a first metal composition comprising predominantly aluminum as a first metal, - and a second cathode is provided with a sputtering target of a second metal composition comprising at least a 50 at.-% portion of a second metal selected from groups IV A - VI A of the periodic table, - generating a plasma in said vacuum chamber by supplying electrical power to said cathodes such that said targets are sputtered, - where said electrical power is supplied to said first cathode as pulsed electrical power according to high power impulse magnetron sputtering with a first peak current density, - and where said electrical power is supplied to said second cathode with a second peak current density lower than said first peak current density, - where said electrical power is supplied to said first cathode as pulsed electrical power according to high power impulse magnetron sputtering with a first peak current density, - and where said electrical power is supplied to said second cathode with a second peak current density lower than said first peak current density, - arranging said substrate in said vacuum chamber such that particles from said plasma deposit onto said substrate forming a coating.
A method for increasing safety of and decreasing the number of mitotic cells in a tissue engineered product (TEP), wherein the method comprises irradiation of the TEP with a radiation dose of between 10 and 50 Gy, wherein irradiation is performed with X-rays or gamma radiation. wherein the method comprises irradiation of the TEP with a radiation dose of between 10 and 50 Gy, wherein irradiation is performed with X-rays or gamma radiation.
Centrifugal deaerator for an air/oil mixture of a turbomachine comprising: - an annular housing for the centrifugal separation of said mixture arranged around a hollow shaft extending along a direction, so-called axial direction, and delimited by an outer annular wall and an inner annular wall , - at least one axial inlet of said air/oil mixture in said housing , - a pinion for rotating said housing comprising a web securely connected to said inner and outer annular walls such that a rotation of said pinion drives said housing in rotation, - at least one radial oil outlet arranged in said outer wall and configured to be able to evacuate the oil separated from said mixture towards the outside of the deaerator, - at least one de-oiled air outlet arranged in said inner wall and configured to be able to evacuate the de-oiled air towards said hollow shaft , characterised in that it comprises a metal foam housed in said housing by extending partially along said axial direction so as to delimit two successive spaces along the axial direction (X'X), a foam-free space and a foam-lined space , said foam-free space opening onto said axial inlet(s). - an annular housing for the centrifugal separation of said mixture arranged around a hollow shaft extending along a direction, so-called axial direction, and delimited by an outer annular wall and an inner annular wall , - at least one axial inlet of said air/oil mixture in said housing , - a pinion for rotating said housing comprising a web securely connected to said inner and outer annular walls such that a rotation of said pinion drives said housing in rotation, - at least one radial oil outlet arranged in said outer wall and configured to be able to evacuate the oil separated from said mixture towards the outside of the deaerator, - at least one de-oiled air outlet arranged in said inner wall and configured to be able to evacuate the de-oiled air towards said hollow shaft , characterised in that it comprises a metal foam housed in said housing by extending partially along said axial direction so as to delimit two successive spaces along the axial direction (X'X), a foam-free space and a foam-lined space , said foam-free space opening onto said axial inlet(s).
Mould for producing a shoe by direct injection onto an upper of a sole , comprising a tread and a midsole , wherein the midsole is composed of a first layer and a second layer ; the mould comprising a base , a pair of first half-rings , a lid , a pair of second half-rings and a mould last , wherein the first half-rings are designed to be arranged close together such that they abut against the base and against the lid , so as to define a first mould cavity for moulding the first layer of the midsole , and wherein, while the first half-rings are abutting against the base , the second half-rings are designed to be arranged close together, such that they lie over the first half-rings and abut against the upper , fitted onto the mould last , so as to define a second mould cavity for moulding the second layer of the midsole ; the mould being characterized in that the first half-rings are provided with guiding means , designed to slidably engage with corresponding guiding means provided in the base , so as to allow the first half-rings to be moved away from and towards each other, the first half-rings being hinged at the bottom with said guiding means so as to be able to rotate about an axis of rotation (C).
A non-transitory computer-readable storage medium storing instructions that when executed by a server cause the server to perform a method for processing digital content for transmission to a client apparatus over a content-centric network, the method comprising: segmenting digital content into a sequence of content objects ; determining a target content object (212.14) from the sequence of content objects that is to be processed out-of-sequence; determining a source content object (212.1) from the sequence of content objects after which the target content object is to be processed; inserting a reference (214.1) into the source content object, wherein the reference indicates that the target content object is to be processed following the source content object; and storing the sequence of content objects, including the reference inserted into the source content object. segmenting digital content into a sequence of content objects ; determining a target content object (212.14) from the sequence of content objects that is to be processed out-of-sequence; determining a source content object (212.1) from the sequence of content objects after which the target content object is to be processed; inserting a reference (214.1) into the source content object, wherein the reference indicates that the target content object is to be processed following the source content object; and storing the sequence of content objects, including the reference inserted into the source content object.
Apparatus for drying objects by spinning, wherein the objects being boxes or crates which have at least one bottom wall and at least one side wall, wherein the apparatus having a transport device which transports the objects along a predetermined transport path and a holding device , which is suitable and intended for temporarily holding the objects, and a drive device which is suitable and intended for spinning the holding device with the object arranged thereon with respect to at least one predetermined axis of rotation, wherein the predetermined axis of rotation (D) extends at an angle different from 90° with respect to the base wall, characterized in that the holding device is a gripping device which preferably grips the objects on at least one side wall, wherein the gripping device is fed towards the objects and this feeding takes place under the force of a spring device and in particular without the application of further forces.
A recirculation fuel cell device having at least one fuel cell , a first inlet for oxygen, a second inlet for hydrogen, and a first water separator , wherein the fuel cell comprises an input side and an output side along with an anode side and a cathode side , wherein the first inlet for oxygen is connected to the input side of the cathode side of the fuel cell , wherein the second inlet for hydrogen is connected to the input side of the anode side of the fuel cell , wherein the device comprises a cathode-side connection, wherein the cathode-side connection is a connection between the output side of the cathode side of the fuel cell and the input side of the cathode side of the fuel cell , wherein the device comprises an anode-side connection, wherein the anode-side connection is a connection between the output side of the anode side of the fuel cell and the input side of the anode side of the fuel cell , wherein the first water separator is arranged in the cathode-side connection, wherein on the output side of the cathode side of the fuel cell the device comprises a gas discharge valve for process gases for the continuous release of process gases, characterized in that the device comprises a first oxygen sensor, wherein the first oxygen sensor detects the oxygen concentration in the surrounding air, wherein the gas discharge valve can be regulated to adjust the inert gas concentration on the basis of the oxygen concentration in the surrounding air as detected by the first oxygen sensor.
A virtual network function, VNF, network element management method, comprising: receiving (S101), by a VNF resource pool management apparatus, a VNF network element request message sent by a VNF resource pool user apparatus, wherein the VNF network element request message comprises attribute information and a location policy of a VNF network element that is requested; determining (SI02), by the VNF resource pool management apparatus according to the VNF network element request message and location information of VNF network elements in a VNF resource pool, a first VNF network element that matches the attribute information and the location policy from the VNF resource pool, wherein the first VNF network element comprises at least one VNF network element; and sending (S103), by the VNF resource pool management apparatus, a VNF network element response message to the VNF resource pool user apparatus, wherein the VNF network element response message comprises identification information of the first VNF network element. receiving (S101), by a VNF resource pool management apparatus, a VNF network element request message sent by a VNF resource pool user apparatus, wherein the VNF network element request message comprises attribute information and a location policy of a VNF network element that is requested; determining (SI02), by the VNF resource pool management apparatus according to the VNF network element request message and location information of VNF network elements in a VNF resource pool, a first VNF network element that matches the attribute information and the location policy from the VNF resource pool, wherein the first VNF network element comprises at least one VNF network element; and sending (S103), by the VNF resource pool management apparatus, a VNF network element response message to the VNF resource pool user apparatus, wherein the VNF network element response message comprises identification information of the first VNF network element.