mhurhangee/patent-ind-claim-en huggingface dataset:
An air conditioner , comprising: a housing ; a compressor system provided in the housing and comprising a first heat exchanger , a second heat exchanger , a compressor and a throttle element circularly communicated, a refrigerant circulating in the compressor system ; a liquid pump system provided in the housing and comprising a third heat exchanger , an energy storage device and a liquid pump device circularly communicated, a coolant circulating in the liquid pump system , the energy storage device comprising an energy storage medium receiving energy from the second heat exchanger and storing the energy, the coolant exchanging heat with the energy storage medium ; characterised in that inside the housing there is an upper accommodation space and a lower accommodation space , at least one of the first heat exchanger or the third heat exchanger is located in the upper accommodation space , and at least one of the second heat exchanger or the energy storage device is located in the lower accommodation space , wherein inside the housing there is further an intermediate accommodation space located between the upper accommodation space and the lower accommodation space , and the compressor or the liquid pump device is located in the intermediate accommodation space . a housing ; a compressor system provided in the housing and comprising a first heat exchanger , a second heat exchanger , a compressor and a throttle element circularly communicated, a refrigerant circulating in the compressor system ; a liquid pump system provided in the housing and comprising a third heat exchanger , an energy storage device and a liquid pump device circularly communicated, a coolant circulating in the liquid pump system , the energy storage device comprising an energy storage medium receiving energy from the second heat exchanger and storing the energy, the coolant exchanging heat with the energy storage medium ; characterised in that inside the housing there is an upper accommodation space and a lower accommodation space , at least one of the first heat exchanger or the third heat exchanger is located in the upper accommodation space , and at least one of the second heat exchanger or the energy storage device is located in the lower accommodation space , wherein inside the housing there is further an intermediate accommodation space located between the upper accommodation space and the lower accommodation space , and the compressor or the liquid pump device is located in the intermediate accommodation space .
A sliding bearing element comprising a first layer having a radially inner surface, wherein a measuring device is arranged on the radially inner surface of the first layer , which measuring device comprises, in the order indicated, a first electrical insulating layer arranged over the entire surface, a sensor layer structured to form conducting paths and a second electrical insulating layer arranged over the entire surface, wherein a sliding layer is arranged over the entire surface on the second electrical insulating layer , characterized in that the first electrical insulating layer is deposited directly over the entire radially inner surface of the first layer using a PVD method, that, furthermore, the sensor layer and the second electrical insulating layer are also deposited using a PVD method, wherein the sensor layer is deposited over the entire radially inner surface of the first electrical insulating layer and is structured to form the conducting paths , and the second electrical insulating layer is deposited over the entire radially inner surface of the sensor layer , and that the sliding layer is a layer deposited by means of a PVD method or a sliding lacquer layer and is deposited over the entire radially inner surface of the second electrical insulating layer .
A resonance noise reduction tire having a sound absorbing material which is mounted therein using an adhesive so as to be adhered to an inner liner formed inside the tire in a circumferential direction thereof, wherein the sound absorbing material is adhered to the inner liner in the circumferential direction thereof, and the sound absorbing material is configured so that opposite ends thereof are adhered with being separated at a predetermined interval (D) so as not to be abutted to each other, the opposite ends of the sound absorbing material are formed so that a separated interval (D1) of an adhered end side which is formed on an outer side in the radial direction of the tire with being adhered to the inner liner is larger than a separated interval (D2) of a free end side which is formed on an inner side in a radial direction of the tire , characterised in that the sound absorbing material is formed so that the opposite ends thereof on the free end side are separated at an interval (D2) of 10 to 30 mm, and the opposite ends thereof on the adhered end side are separated at an interval (D1) of 20 to 50 mm, and the opposite ends of the sound absorbing material have inclined faces formed in an inversed V shape so that an interval therebetween is gradually increased from the free end side formed at the narrow separated interval toward the adhered end side formed at the wide separated interval.
A method of quantifying and/or evaluating a source of metal ions in a dentifrice, wherein the method comprises subjecting the dentifrice to X-ray absorption spectroscopy (XAS), and wherein the XAS is used to quantify and/or evaluate the metal ions in the dentifrice.
Computer-implemented method for securing access operations to at least one coded variable (x c ) in a computer program comprising a multiplicity of coded variables, wherein a large number of or each coded variable (x c ) has its own dynamic signature (D x ), wherein the method is configured such that, in the event of an access operation to this coded variable (x c ), its dynamic signature (D x ) is changed in each case in a prescribed way, a sum value (ΣD x ) for all dynamic signatures (D x ) of all other coded variables (x c ) is carried in a coded tracer variable (Tracer c ), wherein, in the event of a change in a dynamic signature (D x ) of one of the coded variables (x c ), the sum value (∑D x ) carried in the tracer variable (Tracer c ) is modified in the same way, and, for the check, the sum of the dynamic signatures (D x ) of the coded variables (x c ) is compared with the sum value (∑D x ) stored in the coded tracer variable (Tracer c ), wherein, in the event of a discrepancy, error handling is triggered, wherein the sum value (∑D x ) of all dynamic signatures (D x ) is formed in the course of the check, and wherein, prior to the comparison, a respective modulo operation comprising the system constants (A) used to code all coded variables (x c ) and to code the tracer variable (Tracer c ) is applied to the sum of the dynamic signatures (D x ) and to the sum value (∑D x ) carried in the tracer variable (Tracer c ). wherein a large number of or each coded variable (x c ) has its own dynamic signature (D x ), wherein the method is configured such that, in the event of an access operation to this coded variable (x c ), its dynamic signature (D x ) is changed in each case in a prescribed way, a sum value (ΣD x ) for all dynamic signatures (D x ) of all other coded variables (x c ) is carried in a coded tracer variable (Tracer c ), wherein, in the event of a change in a dynamic signature (D x ) of one of the coded variables (x c ), the sum value (∑D x ) carried in the tracer variable (Tracer c ) is modified in the same way, and, for the check, the sum of the dynamic signatures (D x ) of the coded variables (x c ) is compared with the sum value (∑D x ) stored in the coded tracer variable (Tracer c ), wherein, in the event of a discrepancy, error handling is triggered, wherein the sum value (∑D x ) of all dynamic signatures (D x ) is formed in the course of the check, and wherein, prior to the comparison, a respective modulo operation comprising the system constants (A) used to code all coded variables (x c ) and to code the tracer variable (Tracer c ) is applied to the sum of the dynamic signatures (D x ) and to the sum value (∑D x ) carried in the tracer variable (Tracer c ).
A method for working in a forming tool using marking ink , comprising the steps of a) Forming an uncoated sheet metal blank by means of the forming tool into a first three-dimensional sheet metal part without a three-dimensional printed image, b) Forming a sheet metal blank uniformly coated with marking ink by means of the forming tool into a second three-dimensional sheet metal part with a three-dimensional printed image , c) Picking up a two-dimensional reference color image from the first three-dimensional sheet metal part and picking up a two-dimensional color image from the second three-dimensional sheet metal part by means of an image pickup device, d) Correcting the two-dimensional color image using the two-dimensional reference color image, e) Assigning object areas of the corrected two-dimensional colour image to object classes by means of an image processing device, f) Measuring the ink layer thickness (FD) of the three-dimensional printed image in all classified object areas by means of a densitometer , g) Transferring the measured paint layer thicknesses (FD) into a model of the three-dimensional sheet metal part to be produced as topographic elevations, h) Reworking of the forming tool according to the heights of the topographic elevations to improve the three-dimensional printed image . a) Forming an uncoated sheet metal blank by means of the forming tool into a first three-dimensional sheet metal part without a three-dimensional printed image, b) Forming a sheet metal blank uniformly coated with marking ink by means of the forming tool into a second three-dimensional sheet metal part with a three-dimensional printed image , c) Picking up a two-dimensional reference color image from the first three-dimensional sheet metal part and picking up a two-dimensional color image from the second three-dimensional sheet metal part by means of an image pickup device, d) Correcting the two-dimensional color image using the two-dimensional reference color image, e) Assigning object areas of the corrected two-dimensional colour image to object classes by means of an image processing device, f) Measuring the ink layer thickness (FD) of the three-dimensional printed image in all classified object areas by means of a densitometer , g) Transferring the measured paint layer thicknesses (FD) into a model of the three-dimensional sheet metal part to be produced as topographic elevations, h) Reworking of the forming tool according to the heights of the topographic elevations to improve the three-dimensional printed image .
Flooring comprising a multilayer structure comprising successively at least one wear layer , a decorative layer and a sublayer , characterized in that the decorative layer is in the form of a non-woven textile sheet impregnated with a binder and one of the faces of which comprises a decoration printed on said face by ink jet.
A polypeptide having carbonic anhydrase activity, which has at least 90%, at least 91%, at least 92%, at least 93%, at least 94%, at least 95%, at least 96%, at least 97%, at least 98%, at least 99%, or 100% sequence identity to the mature polypeptide of SEQ ID NO: 2, or a fragment thereof that has carbonic anhydrase activity.
Light frame for use with a visor , which light frame comprises a rigid frame part arranged to be mounted about the periphery of a sight glass of the visor using fastening means of the light frame arranged for attaching the light frame to the visor , which frame part comprises at least three directed light sources (131-138,141-144), with respective light cones (131a-138a,141a-144a), arranged to illuminate the area in front of sight glass during use, which light frame further comprises a voltage source arranged to power the light sources, characterised in the combination that said light sources comprise at least two fixedly directed primary light sources (131-138), whose light cones (131a-138a) are directed towards one and the same point arranged between 20 and 80 cm in front of the sight glass during use, and in that said light sources further comprise at least one fixedly directed secondary light source (141-144), whose light cone (141a-144a) during use is not directed towards the said point, in that different pairs of respective primary light sources (131-138) are mounted on the frame part so that they are disposed on different sides of the sight glass during use, and in that at least two such pairs of primary light sources are arranged to, during use, be directed towards different common points in front of the sight glass.
A cutter head for an electric trimmer , the cutter head comprising: a housing having an interior compartment; and a cutting assembly comprising a pair of cutting blades , at least one of the cutting blades being configured for reciprocating movement, at least a portion of the cutting assembly being disposed within the interior compartment of the housing , the cutting assembly further having a front edge disposed exterior of the housing for trimming hair upon operation of the trimmer , said housing comprising a plurality of guard fingers extending beyond but not over the front edge of the cutting assembly to inhibit the front edge against contacting a person's skin during hair trimming, characterized in that the plurality of guard fingers including a plurality of first guard fingers extending above the cutting assembly at an oblique angle relative to the blades and a plurality of second guard fingers extending below the cutting assembly substantially parallel to the blades . a housing having an interior compartment; and a cutting assembly comprising a pair of cutting blades , at least one of the cutting blades being configured for reciprocating movement, at least a portion of the cutting assembly being disposed within the interior compartment of the housing , the cutting assembly further having a front edge disposed exterior of the housing for trimming hair upon operation of the trimmer , said housing comprising a plurality of guard fingers extending beyond but not over the front edge of the cutting assembly to inhibit the front edge against contacting a person's skin during hair trimming, characterized in that the plurality of guard fingers including a plurality of first guard fingers extending above the cutting assembly at an oblique angle relative to the blades and a plurality of second guard fingers extending below the cutting assembly substantially parallel to the blades .
A method of decoding data from a radio signal, the method comprising: applying a matched filter bank to a sampled radio signal to generate correlation-strength data, wherein each filter in the matched filter bank cross-correlates the sampled signal with data representing a respective filter sequence having a common filter length; and using the correlation-strength data to generate a sequence of decoded symbols from the sampled signal wherein the value of each symbol in the sequence of decoded symbols is determined in part based on the value of a respective earlier decoded symbol from the sequence of decoded symbols, wherein determining the value of a symbol in the sequence of decoded symbols comprises: using the correlation-strength data to identify a plurality of matched filter sequences for a common length of the sampled signal, equal to the filter length, wherein each of the identified filter sequences is a respective best-matched filter sequence, from a respective subset of the filter sequences, to said length of the sampled signal; using the value of said respective earlier decoded symbol to select one or more of the identified filter sequences that has the value of said earlier decoded symbol in a symbol position corresponding to a position of said earlier decoded symbol in the sequence of decoded symbols; and using the selected one or more filter sequences for determining the value of the symbol in the sequence of decoded symbols. applying a matched filter bank to a sampled radio signal to generate correlation-strength data, wherein each filter in the matched filter bank cross-correlates the sampled signal with data representing a respective filter sequence having a common filter length; and using the correlation-strength data to generate a sequence of decoded symbols from the sampled signal wherein the value of each symbol in the sequence of decoded symbols is determined in part based on the value of a respective earlier decoded symbol from the sequence of decoded symbols, using the correlation-strength data to identify a plurality of matched filter sequences for a common length of the sampled signal, equal to the filter length, wherein each of the identified filter sequences is a respective best-matched filter sequence, from a respective subset of the filter sequences, to said length of the sampled signal; using the value of said respective earlier decoded symbol to select one or more of the identified filter sequences that has the value of said earlier decoded symbol in a symbol position corresponding to a position of said earlier decoded symbol in the sequence of decoded symbols; and using the selected one or more filter sequences for determining the value of the symbol in the sequence of decoded symbols.
A compound comprising a modified oligonucleotide complementary to a mutant huntingtin allele at a position on the allele comprising the single nucleotide polymorphism rs362307, for use in a method of treating, ameliorating or slowing the onset or progression of Huntington's Disease, wherein the compound selectively reduces the mutant huntingtin allele, wherein the modified oligonucleotide consists of 15 to 20 linked nucleosides and position 5, 6, 7, 8, 9, 10, 11, 12, 13, 14, or 15 of the modified oligonucleotide, as counted from the 5' terminus of the modified oligonucleotide, aligns with the single nucleotide polymorphism, and wherein the modified oligonucleotide comprises a wing-gap-wing motif.
An electric expansion valve for a car air-conditioner, the electric drive valve comprising: a valve main body having a cooling medium inflow port , a cooling medium outflow port , and a valve seat with a valve port arranged between said cooling medium inflow port and said cooling medium outflow port and provided with a valve chest ; a valve body for opening and closing said valve port ; and a valve body drive source for moving said valve body and said valve port in an opening and closing direction, wherein said valve main body is provided with a through passage which has an inflow port for connecting a conduit pipe and an outflow port for connecting the conduit pipe, and a pressure sensor detecting pressure of a cooling medium flowing in said through passage is integrally provided in said valve main body , wherein said valve body drive source and said pressure sensor are mounted to a same side of an outer surface of said valve main body , characterised in that the valve main body further comprises a communication port that communicates with the valve chest and with the cooling medium inflow port , wherein the communication port has a straight bore with a diameter larger than a bore diameter of the valve port . a valve main body having a cooling medium inflow port , a cooling medium outflow port , and a valve seat with a valve port arranged between said cooling medium inflow port and said cooling medium outflow port and provided with a valve chest ; a valve body for opening and closing said valve port ; and a valve body drive source for moving said valve body and said valve port in an opening and closing direction, wherein said valve main body is provided with a through passage which has an inflow port for connecting a conduit pipe and an outflow port for connecting the conduit pipe, and a pressure sensor detecting pressure of a cooling medium flowing in said through passage is integrally provided in said valve main body , wherein said valve body drive source and said pressure sensor are mounted to a same side of an outer surface of said valve main body , characterised in that the valve main body further comprises a communication port that communicates with the valve chest and with the cooling medium inflow port , wherein the communication port has a straight bore with a diameter larger than a bore diameter of the valve port .
A method for forming a flat composite charge into a composite blade stiffener, comprising: trimming a flat composite charge to a final design dimension; cutting the flat composite charge along a cut line into a first piece and a second piece separated by edges having an angle; applying a reinforcement ply over the first piece and the second piece to hold the first piece and the second piece together; applying a ply of contact material to a forming mandrel; positioning the first piece and the second piece of the flat composite charge on the ply of contact material on the forming mandrel about a tooling plunger such that the tooling plunger is aligned with the cut line; activating the tooling plunger to contact the reinforcement ply and drive the first piece and the second piece of the flat composite charge into a cavity of the forming mandrel resulting in the first piece and the second piece folding at the cut line; withdrawing the tooling plunger from the cavity of the forming mandrel; compressing the forming mandrel to apply a lateral pressure to the first piece and the second piece folded into the cavity; and applying a vertical pressure to a first flange and a second flange of the first piece and the second piece, respectively, to form the composite blade stiffener. trimming a flat composite charge to a final design dimension; cutting the flat composite charge along a cut line into a first piece and a second piece separated by edges having an angle; applying a reinforcement ply over the first piece and the second piece to hold the first piece and the second piece together; applying a ply of contact material to a forming mandrel; positioning the first piece and the second piece of the flat composite charge on the ply of contact material on the forming mandrel about a tooling plunger such that the tooling plunger is aligned with the cut line; activating the tooling plunger to contact the reinforcement ply and drive the first piece and the second piece of the flat composite charge into a cavity of the forming mandrel resulting in the first piece and the second piece folding at the cut line; withdrawing the tooling plunger from the cavity of the forming mandrel; compressing the forming mandrel to apply a lateral pressure to the first piece and the second piece folded into the cavity; and applying a vertical pressure to a first flange and a second flange of the first piece and the second piece, respectively, to form the composite blade stiffener.
A planographic printing plate precursor comprising, in the following order: a support; and an image recording layer, wherein the image recording layer contains polymer particles containing an addition polymerization type resin, the addition polymerization type resin contains a polymerizable group and a hydrophilic structure, and the polymerizable group is an ethylenically unsaturated group, and the ethylenically unsaturated group is a (meth)acryloxy group, characterized in that a coefficient of variation in particle diameter of the polymer particles, determined as defined in the description, is 100% or less. a support; and an image recording layer, wherein the image recording layer contains polymer particles containing an addition polymerization type resin, the addition polymerization type resin contains a polymerizable group and a hydrophilic structure, and the polymerizable group is an ethylenically unsaturated group, and the ethylenically unsaturated group is a (meth)acryloxy group, characterized in that a coefficient of variation in particle diameter of the polymer particles, determined as defined in the description, is 100% or less.