mhurhangee/patent-ind-claim-en huggingface dataset:
A refrigerator comprising: a food mounting portion having a heat storage function; a storage room in which a non-contact sensor for detecting a surface temperature of a food placed on the food mounting portion is installed; cooling means for cooling the storage room ; and rapid freezing control means configured to carry out rapid freezing control to cool the storage room with a high cooling capacity, wherein the food mounting portion provides a heat storage function to support rapid freezing to deprive heat from the food brought into contact with the food mounting portion , characterized in that the rapid freezing control is automatically started by the rapid freezing control means for cooling with the high cooling capacity when the temperature of the food detected by the non-contact sensor is higher than a previously set start temperature, and the rapid freezing control is automatically stopped at a time point at which the temperature of the food detected by the non-contact sensor reaches a previously set end temperature. a food mounting portion having a heat storage function; a storage room in which a non-contact sensor for detecting a surface temperature of a food placed on the food mounting portion is installed; cooling means for cooling the storage room ; and rapid freezing control means configured to carry out rapid freezing control to cool the storage room with a high cooling capacity, wherein the food mounting portion provides a heat storage function to support rapid freezing to deprive heat from the food brought into contact with the food mounting portion , characterized in that the rapid freezing control is automatically started by the rapid freezing control means for cooling with the high cooling capacity when the temperature of the food detected by the non-contact sensor is higher than a previously set start temperature, and the rapid freezing control is automatically stopped at a time point at which the temperature of the food detected by the non-contact sensor reaches a previously set end temperature.
Method of coating and embossing in a printing machine wherein - in a first step , a printing material is coated with a first fluid , - in a second step , a relief is embossed into the first fluid on the printing material by means of an embossing die , - in a third step , the first fluid on the printing material is polymerized by UV irradiation to cure the relief , characterized in that a fluid of a viscosity ranging between 40 and 100 pascal-seconds is used as the first fluid . - in a first step , a printing material is coated with a first fluid , - in a second step , a relief is embossed into the first fluid on the printing material by means of an embossing die , - in a third step , the first fluid on the printing material is polymerized by UV irradiation to cure the relief ,
An antigen chip (A2, A11, A12, A21, A22) having a level substrate surface (SO) with antigen spots (AS) which are applied thereon and spaced apart and which comprise an identical, common dye, the antigen spots (AS) forming respective antigen spot sets (AG) which form corresponding respective, regular antigen spot patterns (AM, AM1, AM2), wherein antigen spots (AS) of a same antigen spot set comprise an identical, common antigen type and wherein two or more of the antigen spot sets (A1, A2) comprise different antigen types, wherein reference spots (RS) are furthermore applied on the substrate surface (SO), the reference spots forming a reference spot set, which forms a regular reference pattern (RM), wherein furthermore the reference pattern differs with respect to its regularity from the antigen spot patterns, the reference spots (RS) likewise comprising the identical, common dye.
A scaffold for use with a surgical staple cartridge , comprising: a tissue interaction surface and a cartridge deck interaction surface , each being on opposite sides of the scaffold and each having fibers of a first polymer, the first polymer fibers being multifilament fibers, and fibers of a second polymer, wherein the first polymer fibers form a structural component of the tissue interaction surface and the cartridge deck interaction surface with a variable stiffness profile over time following implantation, and wherein the second polymer fibers degrade at a rate greater than that of the first polymer fibers without substantially affecting the stiffness profile of the structural component; and an intermediate layer disposed between the tissue interaction surface and the cartridge deck interaction surface, the intermediate layer being formed of monofilament fibers that are oriented in a direction that is substantially non-parallel to the cartridge deck. a tissue interaction surface and a cartridge deck interaction surface , each being on opposite sides of the scaffold and each having fibers of a first polymer, the first polymer fibers being multifilament fibers, and fibers of a second polymer, wherein the first polymer fibers form a structural component of the tissue interaction surface and the cartridge deck interaction surface with a variable stiffness profile over time following implantation, and wherein the second polymer fibers degrade at a rate greater than that of the first polymer fibers without substantially affecting the stiffness profile of the structural component; and an intermediate layer disposed between the tissue interaction surface and the cartridge deck interaction surface, the intermediate layer being formed of monofilament fibers that are oriented in a direction that is substantially non-parallel to the cartridge deck.
A sensor system comprising: a flexible insert member configured to be positioned in contact with a sole member of an article of footwear; a port connected to the insert member and configured for communication with an electronic module ; a plurality of sensors connected to the insert member, each sensor comprising a first layer and a second layer , with a first contact located on the first layer and a second contact located on the second layer, the second contact being generally aligned with the first contact, wherein the sensors are each configured such that pressure on the sensor changes a resistance of the sensor; and a plurality of leads connected to the insert member, the leads connecting the sensors to the port, characterized in that the leads are formed by conductive thread sewn into the insert member; wherein each sensor further comprises a connection pad extending from the sensor, wherein the leads are connected to the connection pads of the sensors by sewing the conductive thread to the connection pads. a flexible insert member configured to be positioned in contact with a sole member of an article of footwear; a port connected to the insert member and configured for communication with an electronic module ; a plurality of sensors connected to the insert member, each sensor comprising a first layer and a second layer , with a first contact located on the first layer and a second contact located on the second layer, the second contact being generally aligned with the first contact, wherein the sensors are each configured such that pressure on the sensor changes a resistance of the sensor; and a plurality of leads connected to the insert member, the leads connecting the sensors to the port, characterized in that the leads are formed by conductive thread sewn into the insert member; wherein each sensor further comprises a connection pad extending from the sensor, wherein the leads are connected to the connection pads of the sensors by sewing the conductive thread to the connection pads.
A multicore fiber comprising at least one core having a propagation loss of a light beam in a mode one order higher than a mode of a light beam used for transmitting information, the propagation loss being 0.02 dB/m or more, and less than 1 dB/m, in a wavelength band of light beams used for transmitting the information, when a bend having a diameter of 280 mm is applied, wherein the light beam used for transmitting information is an LP 01 mode light beam. at least one core having a propagation loss of a light beam in a mode one order higher than a mode of a light beam used for transmitting information, the propagation loss being 0.02 dB/m or more, and less than 1 dB/m, in a wavelength band of light beams used for transmitting the information, when a bend having a diameter of 280 mm is applied, wherein the light beam used for transmitting information is an LP 01 mode light beam.
A photovoltaic system for generating electric current depending on electromagnetic radiation in a predetermined range of wavelengths incident on the system comprising: - a volume of medium transparent to the said radiation and comprising a receiving face of the said radiation; - a set of bifacial photovoltaic cells arranged in the transparent volume and each comprising a front face facing the receiving face of the volume and a rear face opposite the front face , wherein the photovoltaic cells define a predetermined irradiation surface (S1); and - redirection means capable of redirecting a portion of the said incident electromagnetic radiation onto receiving face of the volume towards the rear face of the photovoltaic cells , characterized in that the redirection means comprise optical fibres each formed of a core covered with a sheath , the said fibres comprising in the transparent volume : - a first length of fibre (L) arranged opposite the receiving face of the volume and outside the irradiation surface to receive the said incident radiation, and comprising openings in the sheaths of the optical fibres exposing their core so as to collect and transport said radiation portion; and - a second length of fibre (I) arranged opposite the rear faces of the photovoltaic cells and capable of emitting the said part of the radiation collected in the first length (L) of the optical fibres towards the rear faces of the photovoltaic cells . - a volume of medium transparent to the said radiation and comprising a receiving face of the said radiation; - a set of bifacial photovoltaic cells arranged in the transparent volume and each comprising a front face facing the receiving face of the volume and a rear face opposite the front face , wherein the photovoltaic cells define a predetermined irradiation surface (S1); and - redirection means capable of redirecting a portion of the said incident electromagnetic radiation onto receiving face of the volume towards the rear face of the photovoltaic cells , - a first length of fibre (L) arranged opposite the receiving face of the volume and outside the irradiation surface to receive the said incident radiation, and comprising openings in the sheaths of the optical fibres exposing their core so as to collect and transport said radiation portion; and - a second length of fibre (I) arranged opposite the rear faces of the photovoltaic cells and capable of emitting the said part of the radiation collected in the first length (L) of the optical fibres towards the rear faces of the photovoltaic cells .
Method for disintegrating an elastomer , in particular at least one elastomer strand, in which the elastomer is moved in relation to a cutting tool over a base toward the cutting tool , the cutting tool having a cutting wedge with a cutting edge and a rake face adjoining the cutting edge , characterized in that once the cutting wedge comes into contact with the elastomer , the elastomer is initially at least partially compressed only by the rake face between the rake face and the base , before the cutting edge cuts through the elastomer by means of wedge cutting, in a state in which it has elastically flipped up high from the base , the elastomer being captured by the rake face on the flat rear side of the cutting wedge , then being pressed against the base and, in a position in which the elastomer can substantially no longer elastically evade it, being cut by rolling of the cutting edge on the partially compressed elastomer and moving of the cutting wedge through the elastomer in a wedge-like manner, during the movement of the cutting wedge past the base , an angle bisector taken through the cutting edge being angled with respect to the surface of the base by an angle α of 45° ≤ α ≤ 90° .
A quinolylnitrone of formula I, wherein the compound of formula I is ( Z )- N - t -butyl-1-(2-chloro-6-methoxyquinolin-3-yl)methanimine oxide or salts and hydrates thereof; for use in the prevention and/or treatment of cerebral stroke or ischaemia.
A nacelle assembly for a turbofan engine comprising: an outer nacelle defining a radially outer surface of a fan duct ; an inner nacelle defining a radially inner surface of the fan duct ; and a fixed nozzle disposed at a terminal end of the outer nacelle that defines an exit area for bypass air flow through the fan duct , wherein the nozzle includes a convergent portion forward of a divergent portion , the convergent portion extends to a transition point , the divergent portion begins at the transition point and extends to the terminal end of the outer nacelle , the convergent portion defines a throat area , and the throat area is an annular region defined between the inner surface and the outer surface at the transition point between the convergent portion and the divergent portion , characterized in that : a turning angle for the divergent portion is between 12 and 25 degrees, wherein the divergent portion is disposed at the turning angle the entire distance between the transition point and the terminal end . an outer nacelle defining a radially outer surface of a fan duct ; an inner nacelle defining a radially inner surface of the fan duct ; and a fixed nozzle disposed at a terminal end of the outer nacelle that defines an exit area for bypass air flow through the fan duct , wherein the nozzle includes a convergent portion forward of a divergent portion , the convergent portion extends to a transition point , the divergent portion begins at the transition point and extends to the terminal end of the outer nacelle , the convergent portion defines a throat area , and the throat area is an annular region defined between the inner surface and the outer surface at the transition point between the convergent portion and the divergent portion , characterized in that : a turning angle for the divergent portion is between 12 and 25 degrees, wherein the divergent portion is disposed at the turning angle the entire distance between the transition point and the terminal end .
A pigment particle composition which comprises calcium carbonate particles and pigment particles, and optionally other components, such as dispersants, surface-modifying agents and stabilising agents or mixtures thereof, characterized in that at least part of the calcium carbonate particles are carbonated so that they bind to each other to form calcium carbonate structures which comprise at least one pigment particle, wherein the calcium carbonate particles are in the crystalline form of calcite or aragonite and are in external form at least mainly rhombic or rhombohedric, and which calcium carbonate structures, together with the pigment particles, form essentially opaque and stable pigment-calcium carbonate aggregates, the calcium carbonate particles, which are carbonated so that they bind to each other, forming a shell, which at least partly encases the said, at least one, pigment particle, wherein the weight ratio between the pigment particles and the calcium carbonate particles is approximately 60:40...10:90 and wherein more than 50 weight-% of the pigment particles which are part of the aggregate remain attached to the calcium carbonate particles when said pigment particle composition is dispersed in water and dried.
A mobile terminal, comprising a screen, an earpiece , and a housing, wherein the screen is mounted on the housing, the earpiece is disposed in the housing, and the screen is provided with a sound output hole; the sound output hole corresponds to a first front cavity sound outlet and a second front cavity sound outlet that are independently arranged in the housing, the first front cavity sound outlet is connected to the earpiece through a first sound guide channel , and the second front cavity sound outlet is connected to the earpiece through a second sound guide channel ; characterized in that , a difference between a length of the first sound guide channel and that of the second sound guide channel is within a preset range; wherein the mobile terminal further comprises a camera module , the camera module comprises a camera and a bracket for fixing the camera, and the bracket is provided with a first hollow part and a second hollow part ; the first sound guide channel is formed by sequentially connecting the first hollow part in the bracket and a plurality of lines in preset order; and the second sound guide channel is formed by sequentially connecting the second hollow part in the bracket and a plurality of lines in preset order. a difference between a length of the first sound guide channel and that of the second sound guide channel is within a preset range; wherein the mobile terminal further comprises a camera module , the camera module comprises a camera and a bracket for fixing the camera, and the bracket is provided with a first hollow part and a second hollow part ; the first sound guide channel is formed by sequentially connecting the first hollow part in the bracket and a plurality of lines in preset order; and the second sound guide channel is formed by sequentially connecting the second hollow part in the bracket and a plurality of lines in preset order.
A computing device , comprising: a first component comprising a magnetic field sensor disposed on a circuit board with a sensing region, a second component comprising a magnetic portion ; and at least one first connector disposed on the circuit board for connecting to a second connector of the second component ; and a controller communicatively coupled to the magnetic field sensor , wherein the magnetic field sensor is configured for generating first signals in response to detecting the magnetic portion within the sensing region, wherein the controller is configured for generating second signals in response to the first signals indicating the second component is in a first position, wherein the magnetic portion is positioned so that when the second component is connected to the first component , the magnetic portion lies in sensing area , wherein the magnetic field sensor is further configured for detecting a polarity of the magnetic portion , and wherein the first signals are configured to indicate a polarity of the magnetic portion . a first component comprising a magnetic field sensor disposed on a circuit board with a sensing region, a second component comprising a magnetic portion ; and at least one first connector disposed on the circuit board for connecting to a second connector of the second component ; and a controller communicatively coupled to the magnetic field sensor , wherein the magnetic field sensor is configured for generating first signals in response to detecting the magnetic portion within the sensing region, wherein the controller is configured for generating second signals in response to the first signals indicating the second component is in a first position, wherein the magnetic portion is positioned so that when the second component is connected to the first component , the magnetic portion lies in sensing area , wherein the magnetic field sensor is further configured for detecting a polarity of the magnetic portion , and wherein the first signals are configured to indicate a polarity of the magnetic portion .
A method comprising: receiving a signal obtained from measuring a structure under a given set of environmental and/or operational conditions, the signal comprising a set of amplitude values each depending on a respective position in the signal; characterized in that the method further comprising adjusting the amplitude value of each of at least two of the amplitude values using different functions of amplitude against set of environmental and/or operational conditions, wherein each function corresponds to the respective position in the signal on which the amplitude value adjusted by the function depends, such that the at least two amplitude values are adjusted independently. receiving a signal obtained from measuring a structure under a given set of environmental and/or operational conditions, the signal comprising a set of amplitude values each depending on a respective position in the signal; characterized in that the method further comprising adjusting the amplitude value of each of at least two of the amplitude values using different functions of amplitude against set of environmental and/or operational conditions, wherein each function corresponds to the respective position in the signal on which the amplitude value adjusted by the function depends, such that the at least two amplitude values are adjusted independently.
Escape wheel set for a magnetic timepiece escapement mechanism , comprising a first surface (S) which is the largest surface of said wheel set or one of the largest surfaces of said wheel set when said wheel set comprises a plurality thereof, said wheel set including at least one magnetized track , with a succession of ranges about a period of rotational travel (PD) in which the magnetic features thereof are repeated, each said range including a magnetic ramp followed by a magnetic field barrier jointly arranged to generate, with a pole piece of a stop member , an interaction energy with an increasing field for the magnetic ramp and also with an increasing field for said barrier, the field gradient of said latter increasing field being higher than that of the increasing field of the magnetic ramp, said at least one magnetized track being continuous and closed about an axis of said wheel set, extending over said first surface (S) of said escape wheel set , and whose geometry, when projected onto said first surface (S), defines said magnetic ramps and magnetic field barriers; characterized in that said magnetized track includes a magnetic layer of constant thickness and magnetization, and of variable width to define at least, on the one hand, the magnetic ramps and, on the other hand, said magnetic field barriers; in that said magnetized track comprises, connected on either side of a boundary (F), an internal track and an external track including said magnetic field barriers staggered with respect to said boundary (F), in alternate half-periods; in that said magnetic layer comprises, at each half-period, a barrier stud forming a said magnetic field barrier, extending substantially on only one side of said boundary (F), the barrier studs being arranged alternately on said internal track and on said external track ; and in that said magnetic layer extends alternately, essentially over said internal track and said external track between the successive barrier studs.
A passive electronic stacked component comprising: a stack of individual electronic capacitors (2 1 -2 N , 10 1 -10 N , 52 1 -52 N ); a first lead attached to a first side of said stack; a second lead attached to a second side of said stack; a foot attached to said first lead and extending inward towards said second lead; and a stability pin attached to one of said foot or said first lead. a stack of individual electronic capacitors (2 1 -2 N , 10 1 -10 N , 52 1 -52 N ); a first lead attached to a first side of said stack; a second lead attached to a second side of said stack; a foot attached to said first lead and extending inward towards said second lead; and a stability pin attached to one of said foot or said first lead.