mhurhangee/patent-ind-claim-en huggingface dataset:
A lens assembly comprising: a first lens having positive refractive power and including a subject side surface being convex; a second lens having negative refractive power; a third lens having negative refractive power and including a subject side surface and an image sensor side surface being convex toward an image sensor side in a center portion thereof, through which an optical axis passes; a fourth lens having negative refractive power and including a subject side surface and an image sensor side surface being convex toward an image sensor side in a center portion thereof, through which an optical axis passes; and a fifth lens having positive refractive power, wherein the first lens, the second lens, the third lens, the fourth lens, and the fifth lens are sequentially arranged from a subject to an image sensor along the optical axis, wherein the lens assembly satisfies a condition defined by 0.6 < TTL / ImgH < 1 , wherein "TTL" represents a distance from the subject side surface of the first lens to an imaging surface of the image sensor, and "ImgH" represents a maximum image height of an image formed on the imaging surface; and wherein the lens assembly satisfies a condition defined by 1.5 < T 57 / T 67 < 2.5 , wherein "T57" represents a distance from a subject side surface of the third lens to a subject side surface of the fourth lens , and "T67" represents a distance from the image sensor side surface of the third lens to the subject side surface of the fourth lens. a first lens having positive refractive power and including a subject side surface being convex; a second lens having negative refractive power; a third lens having negative refractive power and including a subject side surface and an image sensor side surface being convex toward an image sensor side in a center portion thereof, through which an optical axis passes; a fourth lens having negative refractive power and including a subject side surface and an image sensor side surface being convex toward an image sensor side in a center portion thereof, through which an optical axis passes; and a fifth lens having positive refractive power, wherein the first lens, the second lens, the third lens, the fourth lens, and the fifth lens are sequentially arranged from a subject to an image sensor along the optical axis, wherein the lens assembly satisfies a condition defined by 0.6 < TTL / ImgH < 1 , wherein "TTL" represents a distance from the subject side surface of the first lens to an imaging surface of the image sensor, and "ImgH" represents a maximum image height of an image formed on the imaging surface; and wherein the lens assembly satisfies a condition defined by 1.5 < T 57 / T 67 < 2.5 , wherein "T57" represents a distance from a subject side surface of the third lens to a subject side surface of the fourth lens , and "T67" represents a distance from the image sensor side surface of the third lens to the subject side surface of the fourth lens.
Cooling bag device for an appliance for propelling air selected from a fan, a ceiling fan, a tower fan, an air vent, said device comprising cooling bags made of plastic or any other waterproof and washable material containing water or a gel capable of being frozen and thawed, said device comprising a holder of rigid material configured to be fixed or placed in front of the apparatus for propelling air , to which said pockets are configured to be fixed by fixing means , so as to cool the air propelled by the apparatus , wherein the bags are provided with perforations to allow the passage of air propelled by said apparatus through said perforations , characterised in that the device comprises several of said pockets fixed to said holder which have alternating perforations to facilitate the circulation and cooling of the air. a holder of rigid material configured to be fixed or placed in front of the apparatus for propelling air , to which said pockets are configured to be fixed by fixing means , so as to cool the air propelled by the apparatus , wherein the bags are provided with perforations to allow the passage of air propelled by said apparatus through said perforations , characterised in that the device comprises several of said pockets fixed to said holder which have alternating perforations to facilitate the circulation and cooling of the air.
An apparatus comprising: - a first heat source ; - a fluid ; - a first chamber and a second chamber connected to one another through a channel ; wherein the first heat source is configured to heat the fluid in the first chamber to cause the fluid to flow, through the channel, from the first chamber to the second chamber and to make thermal contact with a second heat source to absorb heat from the second heat source . - a first heat source ; - a fluid ; - a first chamber and a second chamber connected to one another through a channel ;
A system for heat dissipation using a hygroscopic working fluid , the system comprising: a process heat exchanger configured to transfer thermal energy from a heated process fluid to a hygroscopic working fluid to form a cooled process fluid; a fluid-air contactor configured to dissipate heat from the hygroscopic working fluid to a cooling gas composition, and configured to transfer moisture between the hygroscopic working fluid and the cooling gas composition; and characterised by a feed gas heat exchanger configured to condense liquid from a feed gas on a heat transfer surface of the feed gas heat exchanger in contact with the cooled process fluid, to form a cooled feed gas, the heated process fluid, and a condensate wherein the system is configured to add at least part of the condensate to the hygroscopic working fluid. a process heat exchanger configured to transfer thermal energy from a heated process fluid to a hygroscopic working fluid to form a cooled process fluid; a fluid-air contactor configured to dissipate heat from the hygroscopic working fluid to a cooling gas composition, and configured to transfer moisture between the hygroscopic working fluid and the cooling gas composition; and characterised by a feed gas heat exchanger configured to condense liquid from a feed gas on a heat transfer surface of the feed gas heat exchanger in contact with the cooled process fluid, to form a cooled feed gas, the heated process fluid, and a condensate wherein the system is configured to add at least part of the condensate to the hygroscopic working fluid.
A method of in vivo mutagenesis of a preselected target region (PTR) of an intracellular DNA within a cell culture, which PTR comprises at least one sequence of interest (SOI) which is at least 250 nucleobases long, the method comprising: a) providing a pool of partially overlapping single stranded DNA (ssDNA) oligonucleotides which are non-complementary in their overlaps and which align to a continuous sequence that is complementary to the SOI, wherein the pool contains a diversity of mutagenizing single stranded oligonucleotides covering nucleobase mismatches at every position of said SOI and combination of said nucleobase mismatches, wherein each mutagenizing oligonucleotide is hybridizing with the PTR and comprises at least one mismatching nucleobase up to 20% mismatching nucleobases, compared to the SOI; b) integrating the pool into said intracellular DNA by homologous recombination and inducing in vivo mutagenesis of the intracellular DNA through hybridizing the oligonucleotides to the PTR, thereby producing a cell library comprising a repertoire of variant cells covering point mutations in said PTR at every position and combinations of said point mutations within said PTR, wherein the cell library comprises at least 10 6 library members which are characterized by different mutations. a) providing a pool of partially overlapping single stranded DNA (ssDNA) oligonucleotides which are non-complementary in their overlaps and which align to a continuous sequence that is complementary to the SOI, wherein the pool contains a diversity of mutagenizing single stranded oligonucleotides covering nucleobase mismatches at every position of said SOI and combination of said nucleobase mismatches, wherein each mutagenizing oligonucleotide is hybridizing with the PTR and comprises at least one mismatching nucleobase up to 20% mismatching nucleobases, compared to the SOI; b) integrating the pool into said intracellular DNA by homologous recombination and inducing in vivo mutagenesis of the intracellular DNA through hybridizing the oligonucleotides to the PTR, thereby producing a cell library comprising a repertoire of variant cells covering point mutations in said PTR at every position and combinations of said point mutations within said PTR, wherein the cell library comprises at least 10 6 library members which are characterized by different mutations.
Apparatus for welding plastic objects or products, of the type comprising a. a first welding unit , configured to generate ultrasound welds, b. a second welding unit , configured to generate high-frequency welds, the apparatus characterized in that it comprises: c. a lower structure configured to retain the products to be welded on suitable templates and an upper structure configured to define a protective shield during welding operations with the first welding unit and with the second welding unit ; wherein the first welding unit comprises a body-rocker arm , configured to make said first welding unit oscillate between two fixed positions, namely: i. a first non-operating remote position, moving away from the product and from the second welding unit , ii. a second operating approaching position, approaching the product to carry out the welding, the apparatus being configured to carry out at least the two types of welds in sequence on the same product . a. a first welding unit , configured to generate ultrasound welds, b. a second welding unit , configured to generate high-frequency welds, c. a lower structure configured to retain the products to be welded on suitable templates and an upper structure configured to define a protective shield during welding operations with the first welding unit and with the second welding unit ; wherein the first welding unit comprises a body-rocker arm , configured to make said first welding unit oscillate between two fixed positions, namely: i. a first non-operating remote position, moving away from the product and from the second welding unit , ii. a second operating approaching position, approaching the product to carry out the welding, i. a first non-operating remote position, moving away from the product and from the second welding unit , ii. a second operating approaching position, approaching the product to carry out the welding, the apparatus being configured to carry out at least the two types of welds in sequence on the same product .
A dishwasher , comprising: a body defining an accommodating cavity , a wall of the accommodating cavity defining an air inlet and an air outlet ; a heat exchanger having a hot air inlet , a hot air outlet , a cooling air inlet and a cooling air outlet , the hot air inlet being in communication with the air outlet , the cooling air inlet being in communication with external environment, and the hot air outlet being in communication with the external environment; a first fan configured to convey cooling air to the heat exchanger ; a heater having an inlet and an outlet , the inlet of the heater being in communication with the cooling air outlet , and the outlet of the heater being in communication with the air inlet ; and characterised by : a second fan configured to convey hot air in the accommodation cavity to the heat exchanger , and located between the air outlet and the hot air inlet , wherein the hot air outlet is in communication with each of the inlet of the heater and the external environment, and the cooling air outlet is in communication with each of the inlet of the heater and the external environment. a body defining an accommodating cavity , a wall of the accommodating cavity defining an air inlet and an air outlet ; a heat exchanger having a hot air inlet , a hot air outlet , a cooling air inlet and a cooling air outlet , the hot air inlet being in communication with the air outlet , the cooling air inlet being in communication with external environment, and the hot air outlet being in communication with the external environment; a first fan configured to convey cooling air to the heat exchanger ; a heater having an inlet and an outlet , the inlet of the heater being in communication with the cooling air outlet , and the outlet of the heater being in communication with the air inlet ; and characterised by : a second fan configured to convey hot air in the accommodation cavity to the heat exchanger , and located between the air outlet and the hot air inlet , wherein the hot air outlet is in communication with each of the inlet of the heater and the external environment, and the cooling air outlet is in communication with each of the inlet of the heater and the external environment. a second fan configured to convey hot air in the accommodation cavity to the heat exchanger , and located between the air outlet and the hot air inlet , wherein the hot air outlet is in communication with each of the inlet of the heater and the external environment, and the cooling air outlet is in communication with each of the inlet of the heater and the external environment.
A system for providing a medical diagnosis, comprising: a first sensor configured to be attached to a head of a subject and configured to measure a neural rhythm of the subject over a recording time and generate a first series of sensor data of the subject comprising one or more neural micro-rhythm waveforms; a second sensor configured to be attached to a body part of the subject and configured to measure a movement rhythm of the subject over a recording time and generate a second series of sensor data of the subject comprising one or more micro-movement waveforms; a processor ; and a non-transitory computer readable medium containing programming instructions that, when executed, cause the processor to: perform a power spectral analysis of a first neural micro-rhythm waveform in the first series of sensor data and a second micro-movement waveform in the second series of sensor data wherein performing the power spectral analysis comprises generating a first spectrogram from the first micro-rhythm waveform and a second spectrogram from the second micro-rhythm waveform and comparing the first spectrogram and the second spectrogram to generate a cross-spectrum coherence graph representing the coherence between the first and second micro-rhythm waveforms to determine an amount of volition in the subject's body based on the coherence. a first sensor configured to be attached to a head of a subject and configured to measure a neural rhythm of the subject over a recording time and generate a first series of sensor data of the subject comprising one or more neural micro-rhythm waveforms; a second sensor configured to be attached to a body part of the subject and configured to measure a movement rhythm of the subject over a recording time and generate a second series of sensor data of the subject comprising one or more micro-movement waveforms; a processor ; and a non-transitory computer readable medium containing programming instructions that, when executed, cause the processor to: perform a power spectral analysis of a first neural micro-rhythm waveform in the first series of sensor data and a second micro-movement waveform in the second series of sensor data wherein performing the power spectral analysis comprises generating a first spectrogram from the first micro-rhythm waveform and a second spectrogram from the second micro-rhythm waveform and comparing the first spectrogram and the second spectrogram to generate a cross-spectrum coherence graph representing the coherence between the first and second micro-rhythm waveforms to determine an amount of volition in the subject's body based on the coherence.
A cathode for a secondary battery, comprising: a current collector; and an active material layer present on the current collector and comprising an acrylic polymer which forms a crosslinked structure with a polyfunctional cross-linker, wherein the acrylic polymer comprises a polymerization unit of a (meth)acrylic acid ester compound, a polymerization unit a monomer containing a cross-linkable hydroxyl group, and a polymerization unit of a vinyl-based monomer except for a (meth)acrylic acid ester compound, wherein a particle diameter of the acrylic polymer is 10 nm or less as measured with dynamic light scattering (DLS) device wherein the polyfunctional cross-linker is a polyfunctional compound comprising two or more functional groups that contain an isocyanate group and is comprised in an amount of 0.1 to 20 parts by weight with respect to 100 parts by weight of the acrylic polymer. a current collector; and an active material layer present on the current collector and comprising an acrylic polymer which forms a crosslinked structure with a polyfunctional cross-linker, wherein the acrylic polymer comprises a polymerization unit of a (meth)acrylic acid ester compound, a polymerization unit a monomer containing a cross-linkable hydroxyl group, and a polymerization unit of a vinyl-based monomer except for a (meth)acrylic acid ester compound, wherein a particle diameter of the acrylic polymer is 10 nm or less as measured with dynamic light scattering (DLS) device wherein the polyfunctional cross-linker is a polyfunctional compound comprising two or more functional groups that contain an isocyanate group and is comprised in an amount of 0.1 to 20 parts by weight with respect to 100 parts by weight of the acrylic polymer.
Apparatus for additively manufacturing of three-dimensional objects by means of successive layerwise selective irradiation and consolidation of layers of a build material which can be consolidated by means of an energy beam , comprising a detection device configured to detect splash particles (8 - 10) generated by at least partially evaporating build material in a consolidation zone in which the energy beam irradiates the build material , wherein the detection device is arranged off-axis with respect to a beam path of the energy beam and wherein the detection device is configured to detect and/or determine a spray characteristic of the splash particles (8 - 10) generated in the consolidation zone , wherein the detection device is or comprises at least one optical measuring device, in particular an optical sensor, wherein the detection device is configured to detect the size and/or an amount and/or a speed of the splash particles (8 - 10) and/or an impact of a splash particle on a build plane and/or a pattern of impacts of splash particles (8 - 10) on the build plane , characterized in that the detection device is adapted to directly control process parameters upon the generation of splash particles (8 - 10).
Plug screw feeder for conveying feedstock from an inlet area to an outlet area , where the areas have different pressure levels, and for dewatering the feedstock at the same time by means of compression, with a housing and a rotating screw with a screw length L in axial direction, where the rotating screw is designed in several detachable parts and at least one detachable connection in the multi-part, rotating screw is disposed within the screw length L, where within the screw length L at least two parts of the multi-part, rotating screw are made of different metal materials, characterised in that at least one part of the multi-part, rotating screw is made of cast iron containing less than 1% by mass chromium, where the cast iron has a minimum hardness of 260 HB30, minimum tensile strength R m of 800 N/mm 2 and elongation at break in the range of 1 to 10%, and the at least one part is disposed in the low-load area of the plug screw feeder.
Apparatus for use when building a junk model, comprising: an elongate member attachable to a junk model body and having a first end region and a second end region ; a first attachment portion for attaching a first surface engaging element to the first end region; and a second attachment portion for attaching a second surface engaging element to the second end region; wherein the elongate member is selectively adjustable in length to set a distance between the first attachment portion and the second attachment portion; a first surface engaging element attachable to the first attachment portion ; and a second surface engaging element attachable to the second attachment portion , characterised in that at least the second surface engaging element comprises a wheel and a capturing element , an elastic band having a first end region and a second end region, said capturing element capturing said second end region of said elastic band when the wheel is rotated in a first direction and said first end region of said elastic band is coupled to the elongate member. an elongate member attachable to a junk model body and having a first end region and a second end region ; a first attachment portion for attaching a first surface engaging element to the first end region; and a second attachment portion for attaching a second surface engaging element to the second end region; wherein the elongate member is selectively adjustable in length to set a distance between the first attachment portion and the second attachment portion; a first surface engaging element attachable to the first attachment portion ; and a second surface engaging element attachable to the second attachment portion , characterised in that at least the second surface engaging element comprises a wheel and a capturing element , an elastic band having a first end region and a second end region, said capturing element capturing said second end region of said elastic band when the wheel is rotated in a first direction and said first end region of said elastic band is coupled to the elongate member.
A data reporting method, comprising: determining (S1301), by a terminal device, a first modulation and coding scheme, MCS, threshold, a second MCS threshold and a third MCS threshold, which are associated with an MCS table, wherein the MCS table corresponds to a highest modulation scheme supported by the terminal device, the MCS table is further associated with a fourth MCS threshold, and the fourth MCS threshold for scheduling is a default value of 28 or 29, wherein the first MCS threshold is less than the second MCS threshold, the second MCS threshold is less than the third MCS threshold, and the third MCS threshold is less than the fourth MCS threshold, the highest modulation scheme is used by a network device to determine the fourth MCS threshold, and wherein if the highest modulation scheme supported by the terminal device is 64 QAM, the fourth MCS threshold is 29; if the highest modulation scheme supported by the terminal device is 256 QAM, the fourth MCS threshold is 28; and sending (S1302), by the terminal device to a network device, the first MCS threshold, the second MCS threshold and the third MCS threshold. determining (S1301), by a terminal device, a first modulation and coding scheme, MCS, threshold, a second MCS threshold and a third MCS threshold, which are associated with an MCS table, wherein the MCS table corresponds to a highest modulation scheme supported by the terminal device, the MCS table is further associated with a fourth MCS threshold, and the fourth MCS threshold for scheduling is a default value of 28 or 29, wherein the first MCS threshold is less than the second MCS threshold, the second MCS threshold is less than the third MCS threshold, and the third MCS threshold is less than the fourth MCS threshold, the highest modulation scheme is used by a network device to determine the fourth MCS threshold, and wherein if the highest modulation scheme supported by the terminal device is 64 QAM, the fourth MCS threshold is 29; if the highest modulation scheme supported by the terminal device is 256 QAM, the fourth MCS threshold is 28; and sending (S1302), by the terminal device to a network device, the first MCS threshold, the second MCS threshold and the third MCS threshold.