mhurhangee/patent-ind-claim-en huggingface dataset:
A medical appliance having a slidable coating layer which moves in contact with an inner surface of a medical member or that of a lumen and has said slidable coating layer formed at a part thereof which contacts said medical member or said lumen, wherein said slidable coating layer is formed of a composition which does not contain solid fine particles and an organic tin compound, and contains a silicone-based resin which is a product of an addition reaction between an emulsion of silicone having at least two vinyl groups and an emulsion of silicone having at least two hydrogen groups bonded to silicon atoms, characterized in that said silicone having at least two vinyl groups is a polymer in which - a cyclic siloxane, and - a siloxane or silane having the vinyl group were emulsified and polymerized, wherein said siloxane having the vinyl groups is 1,3,5-trivinyl-1,3,5-trimethylcyclotrisiloxane, 1,3,5,7-tetravinyl-1,3,5,7-tetramethylcyclotetrasiloxane, pentavinylpentamethylcyclopentasiloxane, or said silane having the vinyl group is tetrakis(vinyldimethylsiloxy)silane, wherein said silicone-based resin of said composition is formed by hydrosilylation between said vinyl groups of said silicone and hydrogen groups bonded to said silicon atoms. - a cyclic siloxane, and - a siloxane or silane having the vinyl group were emulsified and polymerized,
Genetically modified T-cells for use in adoptive immunotherapy wherein the cells are used as allogenic cells, characterized in that : (a) a first gene encoding CD52 or a glucocorticoid receptor (GR) has been inactivated, wherein the inactivation of said first gene renders said genetically modified T-cells resistant to an immunosuppressive agent targeting CD52 or GR; (b) a second gene encoding TCR alpha or TCR beta has been inactivated; (c) the cells have been expanded in vitro, optionally in presence of said immunosuppressive agent; and (d) said genetically modified T cells express a Chimeric Antigen Receptor (CAR); wherein said genetically modified T cells are administered to a patient treated with the immunosuppressive agent to avoid rejection of said allogenic cells by the patient's immune system. (a) a first gene encoding CD52 or a glucocorticoid receptor (GR) has been inactivated, wherein the inactivation of said first gene renders said genetically modified T-cells resistant to an immunosuppressive agent targeting CD52 or GR; (b) a second gene encoding TCR alpha or TCR beta has been inactivated; (c) the cells have been expanded in vitro, optionally in presence of said immunosuppressive agent; and (d) said genetically modified T cells express a Chimeric Antigen Receptor (CAR);
A peptide composed of an amino acid sequence represented by general formula (I) shown below: X 11 -(Y 11 -X 12 ) n11 (I) (wherein in general formula (I), X 11 is a peptide residue composed of an amino acid sequence of (a) or (b) below: (a) an amino acid sequence represented by SEQ ID NO: 1, (b) an amino acid sequence in which the lysine first from the N-terminus of SEQ ID NO: 1 has been substituted with glycine, alanine, arginine, histidine, serine or threonine; Y 11 is a peptide linker composed of an amino acid residue of at least 1 but not more than 5 amino acids, wherein each amino acid residue is independently a glycine residue, a proline residue, a serine residue, a cysteine residue, or a lysine residue; X 12 is either a peptide residue composed of an amino acid sequence of (a) or (b) above, or a retro-inverso peptide residue thereof; and n11 represents an integer of at least 0 but not more than 2.) (a) an amino acid sequence represented by SEQ ID NO: 1, (b) an amino acid sequence in which the lysine first from the N-terminus of SEQ ID NO: 1 has been substituted with glycine, alanine, arginine, histidine, serine or threonine; Y 11 is a peptide linker composed of an amino acid residue of at least 1 but not more than 5 amino acids, wherein each amino acid residue is independently a glycine residue, a proline residue, a serine residue, a cysteine residue, or a lysine residue; X 12 is either a peptide residue composed of an amino acid sequence of (a) or (b) above, or a retro-inverso peptide residue thereof; and n11 represents an integer of at least 0 but not more than 2.)
An apparatus comprising: a transmitter connected to a data bus, wherein the transmitter comprises an encoder configured to convert data bursts to be transmitted through the data bus into codewords each comprising a plurality of symbols, wherein the encoder is configured to encode the data bursts into a codeword corresponding to the data bursts using maximum transition avoidance, MTA, codeword mappings in which no maximum transition, MT, event occurs between the plurality of symbols and minimum DC current, MDC, codeword mappings related to minimum power consumption of the plurality of symbols, characterised in that the encoder is further configured to transmit a first codeword among the codewords through the data bus in a symmetric on-die-termination, ODT, state in which an ODT state of a receiver connected to the data bus is the same as an ODT state of the transmitter , and wherein the encoder is further configured to invert a most significant bit, MSB, among symbol bits of the first codeword and transmit a second codeword comprising the inverted MSB and the remaining bits of the first codeword in an asymmetric on-die-termination, ODT, state in which the ODT state of the receiver is different from the ODT state of the transmitter . a transmitter connected to a data bus, wherein the transmitter comprises an encoder configured to convert data bursts to be transmitted through the data bus into codewords each comprising a plurality of symbols, wherein the encoder is configured to encode the data bursts into a codeword corresponding to the data bursts using maximum transition avoidance, MTA, codeword mappings in which no maximum transition, MT, event occurs between the plurality of symbols and minimum DC current, MDC, codeword mappings related to minimum power consumption of the plurality of symbols, characterised in that the encoder is further configured to transmit a first codeword among the codewords through the data bus in a symmetric on-die-termination, ODT, state in which an ODT state of a receiver connected to the data bus is the same as an ODT state of the transmitter , and wherein the encoder is further configured to invert a most significant bit, MSB, among symbol bits of the first codeword and transmit a second codeword comprising the inverted MSB and the remaining bits of the first codeword in an asymmetric on-die-termination, ODT, state in which the ODT state of the receiver is different from the ODT state of the transmitter .
A pharmaceutical composition comprising: 2-(( -4-(((4-chlorophenyl)(phenyl) carbamoyloxy)methyl)cyclohexyl)methoxy)acetic acid, hydrate or solvate thereof; and a pharmaceutically acceptable carrier.
An information processing program executable by a computer of an information processing system , the system further comprising a portable input device , which comprises an infrared imaging unit and an infrared light-emitting unit , the program causing one or more processors of the computer to perform: an image acquiring step (S15) configured to sequentially acquire images including at least a subject in a real space from the infrared imaging unit configured to image the subject , wherein the subject reflects the infrared light irradiated from the infrared light-emitting unit; an image generation step (S17) configured to sequentially generate a first image , the first image being a mask image having the shape of the subject included in the images sequentially acquired from the image acquiring step (S15), the portions of the first image being determined depending on whether the luminance of the sequentially acquired images is equal to or larger than a certain value; a display control step (S3, S19) configured to display on a display portion the first image in a way such that a shape, a size and/or a position of the subject can be changed on the display portion by changing at least one of a position, a direction and a size of the subject in respect to the infrared imaging unit , and a second image of a virtual object that is different from the first image; and an updating step (S35) configured to update color information of the second image , and to restrict, when there is an overlapping area of the first image and the second image while the second image is superposed on the first image, an updating of the color information of the second image of the virtual object to an area not overlapping with the first image. an image acquiring step (S15) configured to sequentially acquire images including at least a subject in a real space from the infrared imaging unit configured to image the subject , wherein the subject reflects the infrared light irradiated from the infrared light-emitting unit; an image generation step (S17) configured to sequentially generate a first image , the first image being a mask image having the shape of the subject included in the images sequentially acquired from the image acquiring step (S15), the portions of the first image being determined depending on whether the luminance of the sequentially acquired images is equal to or larger than a certain value; a display control step (S3, S19) configured to display on a display portion the first image in a way such that a shape, a size and/or a position of the subject can be changed on the display portion by changing at least one of a position, a direction and a size of the subject in respect to the infrared imaging unit , and a second image of a virtual object that is different from the first image; and an updating step (S35) configured to update color information of the second image , and to restrict, when there is an overlapping area of the first image and the second image while the second image is superposed on the first image, an updating of the color information of the second image of the virtual object to an area not overlapping with the first image.
A method for repairing a composite member , the method comprising: assembling a composite stack on a surface , the composite stack comprising: a first book nested with a second book ; and an adhesive disposed between the first book and the second book , wherein at least one of the first book and the second book comprises a first pattern of slots; setting the composite stack to yield a composite repair piece ; and attaching the composite repair piece to the composite member . assembling a composite stack on a surface , the composite stack comprising: a first book nested with a second book ; and an adhesive disposed between the first book and the second book , wherein at least one of the first book and the second book comprises a first pattern of slots; a first book nested with a second book ; and an adhesive disposed between the first book and the second book , wherein at least one of the first book and the second book comprises a first pattern of slots; setting the composite stack to yield a composite repair piece ; and attaching the composite repair piece to the composite member .
A method for monitoring the wetting height (B) of a mixing cup in a centrifugal mixer, in which method the mixing cup filled with media (M) is set into rotation about two axes of rotation (D1, D2) extending obliquely to one another by a first drive and by a second drive, said method comprising the following steps: optically detecting the wetting height (B) within the mixing cup by means of an image acquisition device , controlling the drives by a control such that a predefined wetting height (B) is reached or is not exceeded by setting the rotational speed of the first and/or the second drive . optically detecting the wetting height (B) within the mixing cup by means of an image acquisition device , controlling the drives by a control such that a predefined wetting height (B) is reached or is not exceeded by setting the rotational speed of the first and/or the second drive .
A magnetic iron oxide nanoparticle having cubic shape, provided with a polymeric coating comprising carboxylic groups on its surface, said nanoparticle being further functionalised with a platinum-based chemotherapeutic agent and with a targeting agent comprising a scFv antibody fragment, wherein said chemotherapeutic agent and said targeting agent are both attached to different carboxylic groups of said polymeric coating, each of them by means of amino-poly(ethylen glycol) linkers, equal or different to each other, wherein said linkers are covalently bound to said carboxylic groups of the coating.
A data stream processing apparatus, comprising: a buffer device configured for buffering a multimedia data stream, wherein the multimedia data stream comprises a plurality of data units; a demultiplexer configured for accessing the data units of the multimedia data stream in the buffer device, generating an index data corresponding to the data units of the multimedia data stream, and filtering the data units of the multimedia data stream to output a first output data stream; a data processor configured for receiving and processing the first output data stream; a controller configured for receiving a demand of changing playback content, generating a control signal, and determining a DEMUX pointer and a decoding pointer according to the index data, so as to determine a backward buffer section of the buffer device according to the DEMUX pointer and the decoding pointer; wherein the demultiplexer is further configured for, according to the control signal, re-accessing and filtering the data units stored in the backward buffer section to output a second output data stream; and wherein the data processor is further configured for receiving and processing the second output data stream, wherein the DEMUX pointer represents a first buffer address of the buffer where a first data unit of the multimedia stream is currently processed by the demultiplexer, wherein the decoding pointer represents a second buffer address of the buffer where a second data unit of the multimedia stream is currently processed by the data processor. a buffer device configured for buffering a multimedia data stream, wherein the multimedia data stream comprises a plurality of data units; a demultiplexer configured for accessing the data units of the multimedia data stream in the buffer device, generating an index data corresponding to the data units of the multimedia data stream, and filtering the data units of the multimedia data stream to output a first output data stream; a data processor configured for receiving and processing the first output data stream; a controller configured for receiving a demand of changing playback content, generating a control signal, and determining a DEMUX pointer and a decoding pointer according to the index data, so as to determine a backward buffer section of the buffer device according to the DEMUX pointer and the decoding pointer; wherein the demultiplexer is further configured for, according to the control signal, re-accessing and filtering the data units stored in the backward buffer section to output a second output data stream; and wherein the data processor is further configured for receiving and processing the second output data stream, wherein the DEMUX pointer represents a first buffer address of the buffer where a first data unit of the multimedia stream is currently processed by the demultiplexer, wherein the decoding pointer represents a second buffer address of the buffer where a second data unit of the multimedia stream is currently processed by the data processor.
A microemulsion comprising: - an oil phase comprising a hydrophobic active ingredient, preferably a perfume; - an aqueous phase; and - a surfactant system comprising: ▪ a non-ionic primary surfactant system; ▪ a first non-ionic co-surfactant system, and ▪ a second non-ionic co-surfactant system; characterized in that : - the non-ionic primary surfactant system comprises at least one ethoxylated alcohol having between 5 and 19 PEG units; - the first non-ionic co-surfactant system comprises a PEG-modified hydrogenated castor oil having more than 19 PEG units and a polypropoxylated-polyethoxylated alcohol; and - the second non-ionic co-surfactant system is selected from the group consisting of ethoxylated alcohols having more than 19 PEG units, a PEG-modified hydrogenated castor oil having more than 19 PEG and mixtures thereof, and - wherein the surfactant system is free from a cationic surfactant and anionic surfactant. - an oil phase comprising a hydrophobic active ingredient, preferably a perfume; - an aqueous phase; and - a surfactant system comprising: ▪ a non-ionic primary surfactant system; ▪ a first non-ionic co-surfactant system, and ▪ a second non-ionic co-surfactant system; characterized in that : - the non-ionic primary surfactant system comprises at least one ethoxylated alcohol having between 5 and 19 PEG units; - the first non-ionic co-surfactant system comprises a PEG-modified hydrogenated castor oil having more than 19 PEG units and a polypropoxylated-polyethoxylated alcohol; and - the second non-ionic co-surfactant system is selected from the group consisting of ethoxylated alcohols having more than 19 PEG units, a PEG-modified hydrogenated castor oil having more than 19 PEG and mixtures thereof, and - wherein the surfactant system is free from a cationic surfactant and anionic surfactant. ▪ a non-ionic primary surfactant system; ▪ a first non-ionic co-surfactant system, and ▪ a second non-ionic co-surfactant system; - the non-ionic primary surfactant system comprises at least one ethoxylated alcohol having between 5 and 19 PEG units; - the first non-ionic co-surfactant system comprises a PEG-modified hydrogenated castor oil having more than 19 PEG units and a polypropoxylated-polyethoxylated alcohol; and - the second non-ionic co-surfactant system is selected from the group consisting of ethoxylated alcohols having more than 19 PEG units, a PEG-modified hydrogenated castor oil having more than 19 PEG and mixtures thereof, and - wherein the surfactant system is free from a cationic surfactant and anionic surfactant.
Unsaturated derivatives of polysaccharides comprising, in their structure, at least one heterocycle having a double bond in positions 4 and 5 according to the structural formula X, where R represents -NH-CO-CH 3 or -OH.
An evaporator base pan assembly of an air-cooled display cabinet, comprising an enclosure , an evaporator base pan , and a ventilation panel , wherein the enclosure , the evaporator base pan , and the ventilation panel are arranged sequentially from a bottom to a top, wherein an outer side of the evaporator base pan extends outward and bends downward to form a hook portion ; the evaporator base pan is hooked to an upper end of the enclosure through the hook portion ; a bottom portion of the ventilation panel abuts on an upper edge of the evaporator base pan ; the bottom portion of the ventilation panel extends downward to form a limiting portion ; and the limiting portion is located on an outer side of the hook portion ; wherein an upper outer side of the enclosure is provided with a step groove ; and a lower end of the hook portion abuts on an upper surface of the step groove ; characterized in that the lower end of the hook portion of the evaporator base pan extends outward to form a first folded edge ; and the first folded edge abuts on the upper surface of the step groove ; the lower end of the limiting portion extends outward to form a second folded edge ; and a lower surface of the second folded edge abuts on an upper surface of the first folded edge . wherein an outer side of the evaporator base pan extends outward and bends downward to form a hook portion ; the evaporator base pan is hooked to an upper end of the enclosure through the hook portion ; a bottom portion of the ventilation panel abuts on an upper edge of the evaporator base pan ; the bottom portion of the ventilation panel extends downward to form a limiting portion ; and the limiting portion is located on an outer side of the hook portion ; wherein an upper outer side of the enclosure is provided with a step groove ; and a lower end of the hook portion abuts on an upper surface of the step groove ; characterized in that the lower end of the hook portion of the evaporator base pan extends outward to form a first folded edge ; and the first folded edge abuts on the upper surface of the step groove ; the lower end of the limiting portion extends outward to form a second folded edge ; and a lower surface of the second folded edge abuts on an upper surface of the first folded edge .
A method of a user equipment, UE, in a wireless communication system, the method comprising: identifying that a medium access control, MAC, reset occurs; in case that the MAC reset is performed, stopping a periodic power headroom report, PHR, timer; receiving, from a base station, information related to an uplink grant for an uplink resource; identifying whether the uplink resource is first allocated for a new transmission since the MAC reset is performed; in case that the uplink resource is first allocated for the new transmission since the MAC reset is performed, starting the stopped periodic PHR timer without transmitting a PHR; triggering a PHR, in case that the started periodic PHR timer expires; transmitting, to the base station, the triggered PHR; and starting the expired periodic PHR timer. identifying that a medium access control, MAC, reset occurs; in case that the MAC reset is performed, stopping a periodic power headroom report, PHR, timer; receiving, from a base station, information related to an uplink grant for an uplink resource; identifying whether the uplink resource is first allocated for a new transmission since the MAC reset is performed; in case that the uplink resource is first allocated for the new transmission since the MAC reset is performed, starting the stopped periodic PHR timer without transmitting a PHR; triggering a PHR, in case that the started periodic PHR timer expires; transmitting, to the base station, the triggered PHR; and starting the expired periodic PHR timer.
A computer-implemented method for communicating data amongst controllers in a power supply system , comprising: receiving, by a local controller, a present measure of a parameter indicative of an operating state of an uninterruptible power supply "UPS" ; comparing, by the local controller , the present measure to a control window for the parameter, where the control window defines a minimum value for the parameter and a maximum value for the parameter; and transmitting, by the local controller , the present measure via a controller area network to a managing controller when the present measure falls outside of the control window, the method characterised by : updating, by the local controller , the control window based on the present measure when the present measure falls outside of the control window. receiving, by a local controller, a present measure of a parameter indicative of an operating state of an uninterruptible power supply "UPS" ; comparing, by the local controller , the present measure to a control window for the parameter, where the control window defines a minimum value for the parameter and a maximum value for the parameter; and transmitting, by the local controller , the present measure via a controller area network to a managing controller when the present measure falls outside of the control window, the method characterised by : updating, by the local controller , the control window based on the present measure when the present measure falls outside of the control window.