mhurhangee/ep-ind-claims huggingface dataset:
A cathode material comprising: an electrochemical compound having one of olivine and NASICON structures and being in the form of powdery particles; and a conductive metal oxide being attached to the powdery particles of said electrochemical compound; wherein said electrochemical compound has a formula of A 3 xM1 2 y(P0 4) 3 and said conductive metal oxide has a formula of M2aOb, in which A represents at least one metal element selected from the group consisting of Groups IA, IIA and IIIA and combinations thereof; each of M1 and M2 independently represents at least one metal element selected from the group consisting of Groups IIA and IIIA, transition elements, and combinations thereof; and 0≦x≦1.2, 1.2≦y≦1.8, 0<a5≦7, and 0<b≦12, characterized in that said conductive metal oxide is selected from the group consisting of ZnAlO z and copper oxide, in which the subscript z represents the number of oxygen atoms for balancing with valences of zinc and aluminum atoms, said oxide is present in an amount ranging from 0.1 to 5% by weight based on total weight of said cathode material, and said cathode material further comprises a carbonaceous material present in an amount ranging from 0.1 to 5% by weight based on total weight of said cathode material. an electrochemical compound having one of olivine and NASICON structures and being in the form of powdery particles; and a conductive metal oxide being attached to the powdery particles of said electrochemical compound; wherein said electrochemical compound has a formula of A 3 xM1 2 y(P0 4) 3 and said conductive metal oxide has a formula of M2aOb, in which A represents at least one metal element selected from the group consisting of Groups IA, IIA and IIIA and combinations thereof; each of M1 and M2 independently represents at least one metal element selected from the group consisting of Groups IIA and IIIA, transition elements, and combinations thereof; and 0≦x≦1.2, 1.2≦y≦1.8, 0<a5≦7, and 0<b≦12, characterized in that said conductive metal oxide is selected from the group consisting of ZnAlO z and copper oxide, in which the subscript z represents the number of oxygen atoms for balancing with valences of zinc and aluminum atoms, said oxide is present in an amount ranging from 0.1 to 5% by weight based on total weight of said cathode material, and said cathode material further comprises a carbonaceous material present in an amount ranging from 0.1 to 5% by weight based on total weight of said cathode material.
Method for operating a domestic appliance comprising at least one treatment device for treating items to be treated in at least one treatment chamber, the temperature of at least part of the item to be treated being determined contactlessly by means of at least one measuring system comprising at least one processing device, and the treatment device being controlled according to the determined temperature, the measuring system generating electromagnetic measuring radiation, at least intermittently, and introducing said radiation into the treatment chamber by means of at least one transmitting device, and directly reflected measuring radiation that interacts with the item to be treated being received, at least intermittently, by at least one receiving device of the measuring system, the measuring system being designed to transmit and receive ultra-broadband signals having a frequency width of at least 250 MHz and being operated as such, characterised in that the transmitting device repeatedly emits the measuring radiation as at least one ultra-short pulse having a pulse duration shorter than one nanosecond, the measuring system detecting at least the phase and the amplitude as a wave property of the received measuring radiation, taking into account the frequency, the processing device determining the complex permittivity on the basis of the change in the wave property of the received measuring radiation in relation to the transmitted measuring radiation and considering said complex permittivity as a function of the frequency, the temperature being derived on the basis of the frequency dependence of a maximum value of the function.
A method of preparing a blended soy protein product, said method comprising blending commodity soybean defatted flakes and high oleic soybean defatted flakes and preparing a first soy protein product therefrom having a combined PUFA content of about 0.17% to about 1.65% by weight, wherein said high oleic soybean flakes are obtained from soybean seeds having an oleic acid content of at least 60% of the fatty acid moieties and wherein a slurry or solution of said first product has reduced viscosity when compared to a slurry or solution of a second soy protein product obtained from the commodity soybean defatted flakes, and prepared using the same process.
An aerosol-generating article comprising at least one blister capsule (210, 212) comprising a volatile liquid, the aerosol-generating article further comprising a rupturing system, wherein the rupturing system comprises: a first tube and a second tube, wherein the first tube and the second tube are arranged in operational engagement defining a volume; wherein the first tube and the second tube are movable relative to each other along a first motion path from a first position to a second position, such that the defined volume is larger in the first position than in the second position; wherein the first tube comprises a first rupturing member, arranged at least partially inside the first tube, such that in the first position, the first rupturing member is contained completely in the defined volume of the first tube and the second tube; and wherein in the second position, the first rupturing member at least partially protrudes from the defined volume to rupture the blister capsule to form an aperture extending through the blister capsule. a first tube and a second tube, wherein the first tube and the second tube are arranged in operational engagement defining a volume; wherein the first tube and the second tube are movable relative to each other along a first motion path from a first position to a second position, such that the defined volume is larger in the first position than in the second position; wherein the first tube comprises a first rupturing member, arranged at least partially inside the first tube, such that in the first position, the first rupturing member is contained completely in the defined volume of the first tube and the second tube; and wherein in the second position, the first rupturing member at least partially protrudes from the defined volume to rupture the blister capsule to form an aperture extending through the blister capsule.
A gas sensor comprising: a gas sensor element extending in an axial direction from a trailing end side towards a leading end side of the gas sensor; a cylindrical metal shell enclosing said gas sensor element such that a leading end portion of said gas sensor element protrudes from a leading end portion of the cylindrical metal shell; and a protector fixed on said metal shell and covering said leading end portion of said gas sensor element, wherein said protector includes: a cylindrical outer cover portion fixed on said metal shell and having gas introducing apertures; and a cylindrical inner cover portion arranged inside said outer cover portion, characterised by the cylindrical inner cover portion having elastic portions which are elastically deformable in said axial direction, and said inner cover portion is clamped between said cylindrical metal shell and said outer cover portion with said elastic portions elastically deformed by an axial pushing force exerted thereon by said cylindrical metal shell. a gas sensor element extending in an axial direction from a trailing end side towards a leading end side of the gas sensor; a cylindrical metal shell enclosing said gas sensor element such that a leading end portion of said gas sensor element protrudes from a leading end portion of the cylindrical metal shell; and a protector fixed on said metal shell and covering said leading end portion of said gas sensor element, wherein said protector includes: a cylindrical outer cover portion fixed on said metal shell and having gas introducing apertures; and a cylindrical inner cover portion arranged inside said outer cover portion, characterised by the cylindrical inner cover portion having elastic portions which are elastically deformable in said axial direction, and said inner cover portion is clamped between said cylindrical metal shell and said outer cover portion with said elastic portions elastically deformed by an axial pushing force exerted thereon by said cylindrical metal shell. a cylindrical outer cover portion fixed on said metal shell and having gas introducing apertures; and a cylindrical inner cover portion arranged inside said outer cover portion, characterised by the cylindrical inner cover portion having elastic portions which are elastically deformable in said axial direction, and said inner cover portion is clamped between said cylindrical metal shell and said outer cover portion with said elastic portions elastically deformed by an axial pushing force exerted thereon by said cylindrical metal shell.
An omnidirectional vector electrostatic levitation geophone, comprising: a regular tetrahedron hollowed-out structure, and an inner hollowed-out base and an outer hollowed-out base that are provided inside and outside the regular tetrahedron hollowed-out structure and at equal distance from the regular tetrahedron hollowed-out structure, and have the same structure as and different size from the regular tetrahedron hollowed-out structure; the regular tetrahedron hollowed-out structure has a solid part and a hollowed-out part of each surface thereof, the solid part is a quadrangle divided from angular bisectors of two angles on each surface and an isosceles triangle that abuts the solid part by a surface central point, and the hollowed-out part is two triangles that are divided from the angular bisectors of the two angles and abut each other by a surface central point; an outer surface of each surface of the inner hollowed-out base is plated with a metal layer; wherein a size of the metal layer is smaller than that of the quadrangle and the isosceles triangle of the inner hollowed-out base, and the metal layer on the quadrangle of the inner hollowed-out base and the metal layer on the isosceles triangle do not contact each other; an inner surface of each surface of the outer hollowed-out base is plated with a metal layer; wherein a size of the metal layer is smaller than that of the quadrangle and the isosceles triangle of the outer hollowed-out base, and the metal layer on the quadrangle of the outer hollowed-out base and the metal layer on the isosceles triangle do not contact each other; a first circuit is connected between the metal layers on the quadrangle on surfaces that are symmetric on the outer hollowed-out base and the inner hollowed-out base; a second circuit is connected between the metal layers on the isosceles triangles on surfaces that are symmetric on the outer hollowed-out base and the inner hollowed-out base.
A computer-implemented method utilizing at least one processing device to perform operations including: receiving a pose (232; 412) associated with an object in image content; generating a plurality of three-dimensional, 3D, proxy geometries (238; 414-430) of the object, the plurality of 3D proxy geometries (238; 414-430) being based on a shape of the object; generating, based on the plurality of 3D proxy geometries (238; 414-430), a plurality of neural textures (244; 406-410; 614) of the object, the neural textures (244; 406-410; 614) defining a plurality of different shapes and appearances representing the object; providing the plurality of neural textures (244; 406-410; 614) to a neural renderer, the plurality of neural textures (244; 406-410; 614) being provided in a stacked formation; receiving, from the neural renderer and based on the plurality of neural textures (244; 406-410; 614), a color image and an alpha mask representing an opacity of at least a portion of the object; and generating a composite image based on the pose (232; 412), the color image, and the alpha mask. receiving a pose (232; 412) associated with an object in image content; generating a plurality of three-dimensional, 3D, proxy geometries (238; 414-430) of the object, the plurality of 3D proxy geometries (238; 414-430) being based on a shape of the object; generating, based on the plurality of 3D proxy geometries (238; 414-430), a plurality of neural textures (244; 406-410; 614) of the object, the neural textures (244; 406-410; 614) defining a plurality of different shapes and appearances representing the object; providing the plurality of neural textures (244; 406-410; 614) to a neural renderer, the plurality of neural textures (244; 406-410; 614) being provided in a stacked formation; receiving, from the neural renderer and based on the plurality of neural textures (244; 406-410; 614), a color image and an alpha mask representing an opacity of at least a portion of the object; and generating a composite image based on the pose (232; 412), the color image, and the alpha mask.
A culture medium comprising: 5 g/L of phytone; 5 g/L of tryptone; 5 g/L of beef extract; 5 g/L of yeast extract; 22.2 g/L of MOPS buffer; 0.5 g/L of iron citrate; 8 g/L of lithium chloride; 2 g/L of MgSO 4; and 1 g/L of sodium pyruvate, and comprising nalidixic acid, cycloheximide, and acriflavine hydrochloride. 5 g/L of phytone; 5 g/L of tryptone; 5 g/L of beef extract; 5 g/L of yeast extract; 22.2 g/L of MOPS buffer; 0.5 g/L of iron citrate; 8 g/L of lithium chloride; 2 g/L of MgSO 4; and 1 g/L of sodium pyruvate,
A flip-flop circuit, the flip-flop circuit comprising: a master latch; a slave latch connected to the master latch; a dual-function circuit connected to the master latch and the slave latch, wherein the dual-function circuit comprises: a balloon latch connected to the slave latch and configured to perform state retention by retaining stored information after being powered down; and a shadow latch connected to the master latch and configured to perform double sampling by sampling input data sequentially at different time points to the master latch; a plurality of switch circuits connected to an input terminal of the flip-flop circuit, to the master latch, to the slave latch, to the balloon latch, and to the shadow latch; and a control circuit configured to generate a plurality of control signals for the switch circuits based on a clock signal for the master latch and a delayed version of the clock signal for the shadow latch. a master latch; a slave latch connected to the master latch; a dual-function circuit connected to the master latch and the slave latch, wherein the dual-function circuit comprises: a balloon latch connected to the slave latch and configured to perform state retention by retaining stored information after being powered down; and a shadow latch connected to the master latch and configured to perform double sampling by sampling input data sequentially at different time points to the master latch; a balloon latch connected to the slave latch and configured to perform state retention by retaining stored information after being powered down; and a shadow latch connected to the master latch and configured to perform double sampling by sampling input data sequentially at different time points to the master latch; a plurality of switch circuits connected to an input terminal of the flip-flop circuit, to the master latch, to the slave latch, to the balloon latch, and to the shadow latch; and a control circuit configured to generate a plurality of control signals for the switch circuits based on a clock signal for the master latch and a delayed version of the clock signal for the shadow latch.
Settling tank to settle the inorganic portion of the avicultural dejections, comprising at least one first chamber for settling said inorganic portion contained in said avicultural dejections, at least one bottom surface on which said inorganic portion deposits and suctioning means to suction said settled inorganic portion, characterized in that said suctioning means comprise at least one suction duct vertically movable depending on the height said settled inorganic portion reaches with respect to said bottom surface.
An air conditioner comprising: a case having an inlet and an outlet; a first heat exchanger arranged in the case; a second heat exchanger being spaced apart from the first heat exchanger and positioned below the first heat exchanger; a guide member to block a space between adjacent edges of the first heat exchanger and the second heat exchanger, and a water collecting member provided at the guide member to collect condensed water from the first heat exchanger, wherein the water collecting member has a holding space to collect the condensed water, characterized in that the water collecting member further includes a blocking portion extended from a bottom of the holding space toward the first heat exchanger to a height (Hp) at which the blocking portion abuts with the underside of the first heat exchanger. a case having an inlet and an outlet; a first heat exchanger arranged in the case; a second heat exchanger being spaced apart from the first heat exchanger and positioned below the first heat exchanger; a guide member to block a space between adjacent edges of the first heat exchanger and the second heat exchanger, and a water collecting member provided at the guide member to collect condensed water from the first heat exchanger, wherein the water collecting member has a holding space to collect the condensed water, characterized in that the water collecting member further includes a blocking portion extended from a bottom of the holding space toward the first heat exchanger to a height (Hp) at which the blocking portion abuts with the underside of the first heat exchanger.
A needle magazine (1, 100) attachable to an injection device containing a liquid drug, which magazine comprises: A main part (10, 110) attachable to the injection device, A revolving part (20, 120) which is rotatable mounted in relation to the main part (10, 110), The main part (10, 110) comprising at least one proximal pointing tube (13, 113), which tube (13, 113) is adapted to penetrate the injection device and create a liquid flow communication for the liquid drug contained in the injection device, The revolving part (20, 120) comprising a distal section provided with a plurality of needle cannulae (35, 135) in a circular alignment, each individual needle cannula (35, 135) comprising a distal pointed end (39, 139) adapted to penetrate the skin of a subject, and wherein each individual needle cannula (35, 135) has a first position in which the distal pointed end (39, 139) is retracted relative to the distal end (2, 102) of the magazine (1, 100), and a second position in which the distal pointed end (39, 139) projects from the distal end of the magazine (1, 100), characterized in that the tube (13, 113) is provided co-axial to a centre line of the magazine (1, 100), and the plurality of needle cannulae (35, 135) are provided in a peripheral area of the revolving part (20, 120) of the magazine (1, 100), wherein the magazine (1, 100) further comprises a conduit (14, 114, 115) in liquid flow communication with the tube (13, 113) and adapted to establish liquid flow communication between the tube (13, 113) and each individual needle cannula (35, 135) in the plurality, and wherein rotation of the revolving part (20, 120) causes each individual needle cannula (35, 135) to in turn be successively aligned with the conduit (14, 114, 115) whereupon axial movement of each individual needle cannula (35, 135) from the first position to the second position creates a liquid flow communication from the conduit (14, 114, 115) and into each individual needle cannula (35, 135). A main part (10, 110) attachable to the injection device, A revolving part (20, 120) which is rotatable mounted in relation to the main part (10, 110), The main part (10, 110) comprising at least one proximal pointing tube (13, 113), which tube (13, 113) is adapted to penetrate the injection device and create a liquid flow communication for the liquid drug contained in the injection device, The revolving part (20, 120) comprising a distal section provided with a plurality of needle cannulae (35, 135) in a circular alignment, each individual needle cannula (35, 135) comprising a distal pointed end (39, 139) adapted to penetrate the skin of a subject, and wherein each individual needle cannula (35, 135) has a first position in which the distal pointed end (39, 139) is retracted relative to the distal end (2, 102) of the magazine (1, 100), and a second position in which the distal pointed end (39, 139) projects from the distal end of the magazine (1, 100),
A material handler comprising: a motor configured to move one or more components of the material handler; an interface device; and a controller in communication with the motor and the interface device and configured to: receive an input from the interface device; characterized in that the controller is configured to provide a variable frequency drive, VFD, signal to the motor to control movement of the one or more components of the material handler based on the received input, the VFD signal having an operating frequency; and if the interface device is inactive for a predetermined amount of time, adjust the frequency of the VFD signal from the operating frequency to a standby frequency, the standby frequency being lower than the operating frequency, and wherein adjusting the frequency of the VFD signal from the operating frequency to the standby frequency comprises: adjusting the frequency of the VFD signal from the operating frequency to one or more intermediate frequencies before adjusting the frequency of the VFD signal to the standby frequency, each of the one or more intermediate frequencies being between the operating frequency and the standby frequency, by ramping down the frequency at a substantially constant rate with the exception of skipping at least one predetermined frequency or range of frequencies that would otherwise be realized when reducing the frequency at the substantially constant rate. a motor configured to move one or more components of the material handler; an interface device; and a controller in communication with the motor and the interface device and configured to: receive an input from the interface device; characterized in that the controller is configured to provide a variable frequency drive, VFD, signal to the motor to control movement of the one or more components of the material handler based on the received input, the VFD signal having an operating frequency; and receive an input from the interface device; characterized in that the controller is configured to provide a variable frequency drive, VFD, signal to the motor to control movement of the one or more components of the material handler based on the received input, the VFD signal having an operating frequency; and if the interface device is inactive for a predetermined amount of time, adjust the frequency of the VFD signal from the operating frequency to a standby frequency, the standby frequency being lower than the operating frequency, and wherein adjusting the frequency of the VFD signal from the operating frequency to the standby frequency comprises: adjusting the frequency of the VFD signal from the operating frequency to one or more intermediate frequencies before adjusting the frequency of the VFD signal to the standby frequency, each of the one or more intermediate frequencies being between the operating frequency and the standby frequency, by ramping down the frequency at a substantially constant rate with the exception of skipping at least one predetermined frequency or range of frequencies that would otherwise be realized when reducing the frequency at the substantially constant rate.