mhurhangee/patent-ind-claim-en huggingface dataset:
A freeze-dried paste comprising a. from 40% w/w to 80% w/w of a biocompatible polymer b. from 10% w/w to 60% w/w of one or more polyols, c. from 0.3% w/w to 30% w/w of an extrusion enhancer selected from the group consisting of albumin, phosphatidylcholine, phosphatidylserine, lecithin and soy bean oil, and d. from 0.1% w/w to 5% w/w of water. a. from 40% w/w to 80% w/w of a biocompatible polymer b. from 10% w/w to 60% w/w of one or more polyols, c. from 0.3% w/w to 30% w/w of an extrusion enhancer selected from the group consisting of albumin, phosphatidylcholine, phosphatidylserine, lecithin and soy bean oil, and d. from 0.1% w/w to 5% w/w of water.
An implantable absorbable iron-based device, comprising an iron-based substrate , a zinc-containing protector in contact with the iron-based substrate , and a degradable polyester in contact with the iron-based substrate and/or the zinc-containing protector , wherein the ratio of the mass of the zinc-containing protector to the mass of the iron-based substrate ranges between 1:200 and 1:2; and in the degradable polyester , the mass fraction of a low molecular weight portion is less than or equal to 5 percent, and the molecular weight of the low molecular weight portion is less than 10,000; or in the degradable polyester , the mass fraction of the residual monomer is less than or equal to 2 percent. wherein the ratio of the mass of the zinc-containing protector to the mass of the iron-based substrate ranges between 1:200 and 1:2; and in the degradable polyester , the mass fraction of a low molecular weight portion is less than or equal to 5 percent, and the molecular weight of the low molecular weight portion is less than 10,000; or in the degradable polyester , the mass fraction of the residual monomer is less than or equal to 2 percent.
An environmental control system of an aircraft comprising: a compressing device including: a compressor configured to receive a first flow of a medium; and a turbine configured to receive the first flow of the medium and a distinct second flow of the medium; a ram air circuit including a ram air shell having at least one heat exchanger positioned therein, wherein the at least one heat exchanger is fluidly connected to the compressor and the turbine and a flow of medium provided at an outlet of the at least one heat exchanger is split to form the first flow of the medium and the second flow of the medium, a dehumidification system in fluid communication with the turbine ; a bypass valve configured to divert the second flow around the turbine ; and an inlet port arranged in fluid communication with the compressor , the turbine, and the dehumidification system wherein the flow of medium is provided to the environmental control system via the inlet port. a compressor configured to receive a first flow of a medium; and a turbine configured to receive the first flow of the medium and a distinct second flow of the medium; a ram air circuit including a ram air shell having at least one heat exchanger positioned therein, wherein the at least one heat exchanger is fluidly connected to the compressor and the turbine and a flow of medium provided at an outlet of the at least one heat exchanger is split to form the first flow of the medium and the second flow of the medium, a dehumidification system in fluid communication with the turbine ; a bypass valve configured to divert the second flow around the turbine ; and an inlet port arranged in fluid communication with the compressor , the turbine, and the dehumidification system wherein the flow of medium is provided to the environmental control system via the inlet port.
A method performed by a hub to interact with one or more physical peripheral devices within an AR/VR workstation environment, the method comprising: detecting a first physical peripheral device within a physical environment ; determining a location of the first physical peripheral device within the physical environment ; establishing a communicative coupling with, and receiving data from, the first physical peripheral device and an AR/VR-based display ; facilitating a transfer of received data between the first physical peripheral device and the AR/VR-based display ; determining an area to orient a virtual display relative to the first physical peripheral device within the physical environment based on the determined location of the first physical peripheral device ; generating control data configured to cause the AR/VR-based display to project the virtual display in the determined area , characterized in that the AR/VR-based display and the hub are each configured to track their own location using a first tracking system, wherein the determining a location of the first physical peripheral device within the physical environment is tracked via the hub using a second tracking system; and the method is further characterized by providing data corresponding to the determined location of the first physical peripheral device within the physical environment to the AR/VR-based display, based on an integration of tracking via the second tracking system with tracking via the first tracking system. detecting a first physical peripheral device within a physical environment ; determining a location of the first physical peripheral device within the physical environment ; establishing a communicative coupling with, and receiving data from, the first physical peripheral device and an AR/VR-based display ; facilitating a transfer of received data between the first physical peripheral device and the AR/VR-based display ; determining an area to orient a virtual display relative to the first physical peripheral device within the physical environment based on the determined location of the first physical peripheral device ; generating control data configured to cause the AR/VR-based display to project the virtual display in the determined area , characterized in that the AR/VR-based display and the hub are each configured to track their own location using a first tracking system, wherein the determining a location of the first physical peripheral device within the physical environment is tracked via the hub using a second tracking system; and the method is further characterized by providing data corresponding to the determined location of the first physical peripheral device within the physical environment to the AR/VR-based display, based on an integration of tracking via the second tracking system with tracking via the first tracking system.
An isolated antibody or antigen-binding fragment thereof that specifically binds to semaphorin-4D (SEMA4D) and inhibits SEMA4D interaction with its receptor for use in inhibiting, delaying, or reducing malignant cell growth in a subject with cancer, in combination with an effective amount of an epigenetic modulating agent selected from a histone deacetylase (HDAC) inhibitor (HDACi) comprising Chidamide, Belinostat, Valproic acid or a salt thereof, Mocetinostat, Abexinostat, Entinostat, Pracinostat, Resminostat, Givinostat, Quisinostat, Kevetrin, CUDC-101, AR-42, Tefinostat (CHR-2845), CHR-3996, 4SC-202, CG200745, ACY-1215, or ACY-241; a DNA methyltransferase (DNMT) inhibitor (DNMTi); or any combination thereof.
Electrical connection between a flat part and a connecting part wherein - the flat part and the connecting part are arranged one above the other in an overlap area, - a contact surface of the flat part facing the connecting part in the overlap area has a relief-like structure and - the flat part is friction-welded, in particular ultrasonically welded, to the connecting part via the structured contact surface, wherein the contact surface is structured in a longitudinal section of the flat part before and after welding, characterized in that - the connecting part has completely penetrated into the relief-like surface of the flat part and a full-surface connection between the connecting part and the contact surface has formed. - the flat part and the connecting part are arranged one above the other in an overlap area, - a contact surface of the flat part facing the connecting part in the overlap area has a relief-like structure and - the flat part is friction-welded, in particular ultrasonically welded, to the connecting part via the structured contact surface, wherein the contact surface is structured in a longitudinal section of the flat part before and after welding, characterized in that - the connecting part has completely penetrated into the relief-like surface of the flat part and a full-surface connection between the connecting part and the contact surface has formed.
Computer-implemented method for providing an authentication list for authentication of a purchase by a user, comprising a first stage of: - providing a database on a server ; - obtaining profile data from the user comprising at least one first user datum of the user, which is shown on an identity document ; - storing the profile data in a profile in the database; - associating a product code, such as a ticket, with the profile, for instance by the user purchasing the product code and a second stage of: - reading the first and second user datum from a chip of the identity document ; - receiving a second user datum from the user, wherein the second user datum is shown on the identity document , on the server , wherein the second user datum comprises a unique identification number; and - adding the second user datum to the profile associated with the first user datum ; and - creating, on the basis of the product code, an authentication of the profiles comprising the product code. - providing a database on a server ; - obtaining profile data from the user comprising at least one first user datum of the user, which is shown on an identity document ; - storing the profile data in a profile in the database; - associating a product code, such as a ticket, with the profile, for instance by the user purchasing the product code - reading the first and second user datum from a chip of the identity document ; - receiving a second user datum from the user, wherein the second user datum is shown on the identity document , on the server , wherein the second user datum comprises a unique identification number; and - adding the second user datum to the profile associated with the first user datum ; and - creating, on the basis of the product code, an authentication of the profiles comprising the product code.
Composition, especially comprising a physiologically acceptable medium, especially for making up and/or caring for keratin materials, in the form of a water-in-oil emulsion containing at least: a) a continuous oily phase, and b) a discontinuous aqueous phase dispersed in said oily phase; c) at least baicalin and/or a derivative thereof and/or a plant extract containing said compound(s); and d) at least one vitamin B3 and/or a derivative thereof; and e) at least one xanthine base and/or a plant extract containing same; and f) at least one polyvalent metal cation salt chosen from chlorides and sulfates of alkaline earth metals. a) a continuous oily phase, and b) a discontinuous aqueous phase dispersed in said oily phase; c) at least baicalin and/or a derivative thereof and/or a plant extract containing said compound(s); and d) at least one vitamin B3 and/or a derivative thereof; and e) at least one xanthine base and/or a plant extract containing same; and f) at least one polyvalent metal cation salt chosen from chlorides and sulfates of alkaline earth metals.
Computer-implemented method for operating a detector that is configured to check whether a data signal (x) supplied to a machine learning system has been manipulated, wherein the data signal (x) is a two-dimensional image signal, wherein the machine learning system is initially contradictorily trained by means of a manipulated data signal (x adv ), the manipulated data signal (x adv ) having been ascertained by manipulating a training data signal (x train ) , wherein the training data signal (x train ) is a two-dimensional image signal and the manipulated data signal (x adv ) is a two-dimensional image signal, and wherein the machine learning system is trained to deliver the same output signal (y) whenever it is supplied with the training data signal (x train ) or the manipulated data signal (x adv ) , wherein the output signal (y) of the machine learning system is a classification result, wherein the detector is trained by means of a further manipulated data signal (x adv;2 ) and a further training data signal (x train ) so that its output signal (g) indicates that there is a manipulated data signal if the detector is supplied with the further manipulated data signal (x adv;2 ), and indicates that there is no manipulated data signal if the detector is supplied with the training data signal (x train ), wherein the further manipulated data signal (x adv;2 ) is generated from the further training data signal (x train ) on the basis of the trained machine learning system , wherein the further manipulated data signal (x adv;2 ) is a two-dimensional image signal and the further training data signal (x train ) is a two-dimensional image signal. wherein the data signal (x) is a two-dimensional image signal, wherein the machine learning system is initially contradictorily trained by means of a manipulated data signal (x adv ), the manipulated data signal (x adv ) having been ascertained by manipulating a training data signal (x train ) , wherein the training data signal (x train ) is a two-dimensional image signal and the manipulated data signal (x adv ) is a two-dimensional image signal, and wherein the machine learning system is trained to deliver the same output signal (y) whenever it is supplied with the training data signal (x train ) or the manipulated data signal (x adv ) , wherein the output signal (y) of the machine learning system is a classification result, wherein the detector is trained by means of a further manipulated data signal (x adv;2 ) and a further training data signal (x train ) so that its output signal (g) indicates that there is a manipulated data signal if the detector is supplied with the further manipulated data signal (x adv;2 ), and indicates that there is no manipulated data signal if the detector is supplied with the training data signal (x train ), wherein the further manipulated data signal (x adv;2 ) is generated from the further training data signal (x train ) on the basis of the trained machine learning system , wherein the further manipulated data signal (x adv;2 ) is a two-dimensional image signal and the further training data signal (x train ) is a two-dimensional image signal.
Method for producing a replica of a tooth , comprising 3D printing said replica from a 3D digital model of said tooth from digital imaging data of said tooth , processing said digital data so as to obtain a physical-realistic digital modeling of one or more root canals present in said tooth , such that the replica of said tooth obtained by said 3D printing includes one or more biomimetic root canals (CR), characterized in that the physical-realistic digital modeling includes a modeling of an apical constriction (CA) and of an apical foramen (FA) of a real canal at the opening of an apex (AR) of the tooth, and in that said biomimetic root canals (CR) thus obtained by 3D printing each comprise a single exterior outlet via a replica of said apical foramen (FA) such that said root canals are accessible only after milling the upper portion of the tooth replica. characterized in that the physical-realistic digital modeling includes a modeling of an apical constriction (CA) and of an apical foramen (FA) of a real canal at the opening of an apex (AR) of the tooth, and in that said biomimetic root canals (CR) thus obtained by 3D printing each comprise a single exterior outlet via a replica of said apical foramen (FA) such that said root canals are accessible only after milling the upper portion of the tooth replica.
A lithium-ion battery comprising a cell and an electrolyte solution, the cell comprising a negative electrode sheet, wherein the negative electrode sheet comprises a negative electrode current collector, an active coating layer disposed on a surface of the negative electrode current collector, and a protective coating layer disposed on a surface of the active coating layer, the protective coating layer is a solid-state electrolyte coating layer, a molar ratio of a content of high-valence metal elements to a content of low-valence metal elements in a same type of elements in the protective coating layer is 1:0.1 to 1:1, a thickness of the solid-state electrolyte coating layer is 0.5μm to 5μm, and a solid-state electrolyte of the solid-state electrolyte coating layer is selected from one or more of Li 1+ x Al x Ti 2- x (PO 4 ) 3 (0<x<2) and Li 3x La 2/3-x TiO 3 (0<x<2/3).
A seat unit for a passenger vehicle comprising: a lower support structure comprising at least two leg supports , each leg support comprising a central portion , a front portion , and a rear portion ; and an upper support structure comprising a seat pan and a seat back integrally formed into a single component; characterised in that each leg support is integrally formed into a downwardly orientated arcuate shape such that the front portion and the rear portion extend downwardly from the central portion forming an arch so as to allow a load to be dispersed over the arch. a lower support structure comprising at least two leg supports , each leg support comprising a central portion , a front portion , and a rear portion ; and an upper support structure comprising a seat pan and a seat back integrally formed into a single component;
A method for adjusting a contention window size, CWS, in a wireless access system supporting an unlicensed band, the method comprising: performing (S2710) a channel access procedure based on random back-off; after a serving cell configured in the unlicensed band is determined to be an idle state based on the channel access procedure, transmitting (S2760), in at least one transmission time interval, TTI, a transmission burst comprising a downlink signal in the serving cell; identifying (S2770) hybrid automatic repeat and request acknowledgment, HARQ-ACK, information related to the transmission burst; and adjusting (S2780) the CWS based on HARQ-ACK information related to a starting TTI included in the at least one TTI, wherein each of the at least one TTI is configured as 14 orthogonal frequency division multiplexing, OFDM, symbols. performing (S2710) a channel access procedure based on random back-off; after a serving cell configured in the unlicensed band is determined to be an idle state based on the channel access procedure, transmitting (S2760), in at least one transmission time interval, TTI, a transmission burst comprising a downlink signal in the serving cell; identifying (S2770) hybrid automatic repeat and request acknowledgment, HARQ-ACK, information related to the transmission burst; and adjusting (S2780) the CWS based on HARQ-ACK information related to a starting TTI included in the at least one TTI, wherein each of the at least one TTI is configured as 14 orthogonal frequency division multiplexing, OFDM, symbols.
Data acquisition system , comprising: a control and monitoring apparatus including a plurality of electronic application components and a multiplexer coupled to the plurality of electronic application components ; a domain network interface coupled to the multiplexer ; a data collection component including a data flow controller and a data collection memory component coupled to the data flow controller ; a plurality of external interfaces ; and an interface component implemented in the data collection component and coupled between the data flow controller and the plurality of external interfaces , the interface component being configured to allow bidirectional protocol-based communication between the data flow controller and systems connected to the plurality of external interfaces , wherein the data flow controller is configured to manage data flows and internal functions of the data collection component , at least some of the internal functions being configurable, characterized in that the data flow controller is further configured to receive incoming data flows from the electronic application components via an internal system interface and to sample, pre-process and compress the data flows based on a predefined configuration, the internal system interface only allowing for unidirectional transmission of data flows from the plurality of electronic application components to the data flow controller . a control and monitoring apparatus including a plurality of electronic application components and a multiplexer coupled to the plurality of electronic application components ; a domain network interface coupled to the multiplexer ; a data collection component including a data flow controller and a data collection memory component coupled to the data flow controller ; a plurality of external interfaces ; and an interface component implemented in the data collection component and coupled between the data flow controller and the plurality of external interfaces , the interface component being configured to allow bidirectional protocol-based communication between the data flow controller and systems connected to the plurality of external interfaces , wherein the data flow controller is configured to manage data flows and internal functions of the data collection component , at least some of the internal functions being configurable, characterized in that the data flow controller is further configured to receive incoming data flows from the electronic application components via an internal system interface and to sample, pre-process and compress the data flows based on a predefined configuration, the internal system interface only allowing for unidirectional transmission of data flows from the plurality of electronic application components to the data flow controller .
An in vitro method of increasing phagocytosis of cancer cells, the method comprising: contacting a population of phagocytic cells with a TLR agonist in a dose effective to increase expression of calreticulin on the phagocytic cell surface; and with an effective dose of a CD47 blocking agent; wherein programmed cell removal of cancer cells by the phagocytic cells is increased. contacting a population of phagocytic cells with a TLR agonist in a dose effective to increase expression of calreticulin on the phagocytic cell surface; and with an effective dose of a CD47 blocking agent; wherein programmed cell removal of cancer cells by the phagocytic cells is increased.
A recombinant oncolytic adenovirus comprising: a gene encoding Interleukin 12 (IL-12); a gene encoding a granulocyte-macrophage colony-stimulating factor (GM-CSF); and a gene encoding relaxin, wherein the recombinant oncolytic adenovirus simultaneously expresses the gene encoding IL-12, the gene encoding GM-CSF, and the gene encoding relaxin.
Vehicle glazing comprising a glazed element , at least one mounting plate for the reversible attachment of an accessory to said glazed element , said mounting plate having an exterior face which is fixed facing an interior face of said glazed element , and comprising at least one mount for the reversible attachment of another accessory to said glazed element , said mount having an exterior face which is fixed facing an interior face of said glazed element , characterized in that said mount is mechanically connected by at least one connecting arm connecting said mount to said mounting plate while at the same time allowing the orientation of said mount to be modified with respect to the mounting plate when attaching said mount to the interior face of the glazed element .