mhurhangee/patent-ind-claim-en huggingface dataset:
Method for selecting a donor for providing transplantation material, comprising: a. Providing an electronic representation of HLA-typing data from a transplantation recipient and one or more candidate transplantation donors, wherein two-field specific HLA protein typing is unavailable for said donor(s) and/or recipient, b. Determining in a computer-implemented method the number of predicted indirectly recognized HLA epitopes (PIRCHES) (PIRCHE value) for multiple specific HLA proteins of the donor allele group of the HLA locus that is mismatched or potentially mismatched between said donor and said recipient (mismatched donor allele group); using the data provided in step (a) and c. Selecting or rejecting one or more of said candidate transplantation donors in a computer-implemented method according to the PIRCHE values determined in step b). a. Providing an electronic representation of HLA-typing data from a transplantation recipient and one or more candidate transplantation donors, wherein two-field specific HLA protein typing is unavailable for said donor(s) and/or recipient, b. Determining in a computer-implemented method the number of predicted indirectly recognized HLA epitopes (PIRCHES) (PIRCHE value) for multiple specific HLA proteins of the donor allele group of the HLA locus that is mismatched or potentially mismatched between said donor and said recipient (mismatched donor allele group); using the data provided in step (a) and c. Selecting or rejecting one or more of said candidate transplantation donors in a computer-implemented method according to the PIRCHE values determined in step b).
Isolated exosomes extracted from cells obtained from a subepithelial layer of a mammalian umbilical cord tissue and capable of self-renewal and culture expansion, the cells expressing CD90, CD44, CD146, or SOX2 and OCT4, and wherein the cells do not express NANOG, and wherein the exosomes express CD63.
Reconfigurable RF front-end circuit for a multi-beam array fed reflector antenna system having a first plurality of N B input beam signals and a second plurality of N E radiating elements (RE), the front-end circuit comprising a reconfigurable beam forming network (LLRBFN), having a set of N B input ports and distributing each input port signal to a plurality of N A output ports with phase and amplitude control; a plurality of N A high power amplifiers (VB-HPA) connected to the plurality of N A output ports of the reconfigurable beam forming network (LLRBFN); an output network (ONET, OSN), arranged for recombining signals output by the high power amplifiers (VB-HPA) and feeding the recombined signals to the second plurality of N E radiating elements (RE), wherein the high power amplifiers (VB-HPA) are variable bias high power amplifiers (VB-HPA), further comprising a set of channel amplifiers (CA) each connected to one of the set of N B input ports of the reconfigurable beam forming network (LLRBFN).
An electric braking system for braking an aircraft wheel , the system comprising: • a brake comprising friction members and at least one electromechanical actuator designed in such a manner that when it applies a controlled braking force on the friction members that is less than or equal to a first maximum threshold, no functional or structural degradation of the electromechanical actuator occurs, and when it applies a controlled braking force on the friction members that is greater than the first maximum threshold but less than or equal to a second maximum threshold, functional and/or structural degradation is likely to occur, but without preventing the electromechanical actuator from applying the controlled braking force; and • control means arranged to produce a control current for powering an electric motor of the electromechanical actuator ; the control means being configurable to occupy a first mode in which the control current is such that the controlled braking force cannot exceed the first maximum threshold, and to occupy a second mode in which the control current is such that the controlled braking force can reach the second maximum threshold; and • in that the electric braking system includes configuration means arranged to configure the control means to occupy the second mode when in a situation preceding a potential interruption of takeoff (RTO) of the aircraft, and otherwise to occupy the first mode. • a brake comprising friction members and at least one electromechanical actuator designed in such a manner that when it applies a controlled braking force on the friction members that is less than or equal to a first maximum threshold, no functional or structural degradation of the electromechanical actuator occurs, and when it applies a controlled braking force on the friction members that is greater than the first maximum threshold but less than or equal to a second maximum threshold, functional and/or structural degradation is likely to occur, but without preventing the electromechanical actuator from applying the controlled braking force; and • control means arranged to produce a control current for powering an electric motor of the electromechanical actuator ; • in that the electric braking system includes configuration means arranged to configure the control means to occupy the second mode when in a situation preceding a potential interruption of takeoff (RTO) of the aircraft, and otherwise to occupy the first mode.
A medical kit for the preparation of Bone Marrow Concentrate (BMC) and/or Plasma Concentrate (PC), the medical kit comprising: A) a first container, wherein said first container comprises or is pre-filled with: i) at the least one anticoagulant, ii) a cell selector gel (CSG), iii) a first biomaterial, and iv) optionally at the least one blood, bone marrow, cells and/or platelet preservation solution; wherein a collection device is affixable to said first container for collection of blood and/or bone marrow into said first container; B) a second container for the collection of PC and/or BMC from said first container, wherein said second container comprises or is pre-filled with a second biomaterial, and C) optionally a collection device for being affixed to said second container for the collection of PC and/or BMC from said first container into said second container and wherein said first and second biomaterials are hyaluronic acid. A) a first container, wherein said first container comprises or is pre-filled with: i) at the least one anticoagulant, ii) a cell selector gel (CSG), iii) a first biomaterial, and iv) optionally at the least one blood, bone marrow, cells and/or platelet preservation solution; wherein a collection device is affixable to said first container for collection of blood and/or bone marrow into said first container; i) at the least one anticoagulant, ii) a cell selector gel (CSG), iii) a first biomaterial, and iv) optionally at the least one blood, bone marrow, cells and/or platelet preservation solution; B) a second container for the collection of PC and/or BMC from said first container, wherein said second container comprises or is pre-filled with a second biomaterial, and C) optionally a collection device for being affixed to said second container for the collection of PC and/or BMC from said first container into said second container and wherein said first and second biomaterials are hyaluronic acid.
Method for geolocating a terminal of a wireless communication system , said terminal being adapted to exchange messages with an access network of said wireless communication system according to a first wireless communication protocol, said method including: - detecting , by the terminal , for at least one transmitting device , an identifier of said transmitting device based on a message transmitted by said transmitting device according to a second wireless communication protocol, - transmitting , by the terminal , to the access network , according to the first wireless communication protocol, at least one message including one or more detected identifiers, - determining , by the access network , a geographical position of the terminal by transmitting a request comprising at least one of the received identifiers to a geolocation server storing a geolocation database including a list of identifiers of transmitting devices and the respective geographical positions of said transmitting devices , characterized in that said request being defined using a database, known as "identifier reliability database ", making it possible to associate with any identifier at least one value representative of the reliability of said identifier for said geolocation server , the identifier reliability database being used to select the geolocation server to which to send the request and/or to select the identifiers to be included in the request, the identifier reliability database being stored by one or more servers different from the geolocation server . - detecting , by the terminal , for at least one transmitting device , an identifier of said transmitting device based on a message transmitted by said transmitting device according to a second wireless communication protocol, - transmitting , by the terminal , to the access network , according to the first wireless communication protocol, at least one message including one or more detected identifiers, - determining , by the access network , a geographical position of the terminal by transmitting a request comprising at least one of the received identifiers to a geolocation server storing a geolocation database including a list of identifiers of transmitting devices and the respective geographical positions of said transmitting devices , characterized in that said request being defined using a database, known as "identifier reliability database ", making it possible to associate with any identifier at least one value representative of the reliability of said identifier for said geolocation server , the identifier reliability database being used to select the geolocation server to which to send the request and/or to select the identifiers to be included in the request, the identifier reliability database being stored by one or more servers different from the geolocation server .
A data processing method, applicable to a first edge device of a virtual extensible local area network, the method comprising: receiving a target message, and determining a target network tag and a target destination address of the target message ; determining a target outbound interface corresponding to the target message based on a result of matching the target network tag and the target destination address with a locally stored correspondence relationship of a network tag, a destination address and an outbound interface ; and sending the target message through the target outbound interface ; characterized in that the target network tag includes a VLAN tag. receiving a target message, and determining a target network tag and a target destination address of the target message ; determining a target outbound interface corresponding to the target message based on a result of matching the target network tag and the target destination address with a locally stored correspondence relationship of a network tag, a destination address and an outbound interface ; and sending the target message through the target outbound interface ; characterized in that the target network tag includes a VLAN tag.
A Bit Indexed Explicit Replication, BIER, packet forwarding method, applied to a packet sending node, comprising: setting node information of a BIER forwarding neighboring node in a Bit Index Forwarding Table, BIFT, forwarding entry, wherein the node information of the BIER forwarding neighboring node indicates whether the BIER forwarding neighboring node has a capability of processing a target packet format; in a case of determining according to the node information that the BIER forwarding neighboring node has the capability of processing the target packet format, encapsulating a BIER packet according to the target packet format; and sending an encapsulated BIER packet to the BIER forwarding neighboring node; wherein in the case of determining according to the node information that the BIER forwarding neighboring node has the capability of processing the target packet format, encapsulating the BIER packet according to the target packet format comprises: in a case where the node information comprises a packet format identifier corresponding to a non-Multiprotocol Label Switching, MPLS, BIER packet, determining that the BIER forwarding neighboring node has the capability of processing the target packet format; and acquiring a BIER non-MPLS Generic Label, BNMGL, in the node information, and encapsulating the BNMGL and a BIER packet payload in a non-MPLS BIER packet format as an MPLS packet. setting node information of a BIER forwarding neighboring node in a Bit Index Forwarding Table, BIFT, forwarding entry, wherein the node information of the BIER forwarding neighboring node indicates whether the BIER forwarding neighboring node has a capability of processing a target packet format; in a case of determining according to the node information that the BIER forwarding neighboring node has the capability of processing the target packet format, encapsulating a BIER packet according to the target packet format; and sending an encapsulated BIER packet to the BIER forwarding neighboring node; wherein in the case of determining according to the node information that the BIER forwarding neighboring node has the capability of processing the target packet format, encapsulating the BIER packet according to the target packet format comprises: in a case where the node information comprises a packet format identifier corresponding to a non-Multiprotocol Label Switching, MPLS, BIER packet, determining that the BIER forwarding neighboring node has the capability of processing the target packet format; and acquiring a BIER non-MPLS Generic Label, BNMGL, in the node information, and encapsulating the BNMGL and a BIER packet payload in a non-MPLS BIER packet format as an MPLS packet. in a case where the node information comprises a packet format identifier corresponding to a non-Multiprotocol Label Switching, MPLS, BIER packet, determining that the BIER forwarding neighboring node has the capability of processing the target packet format; and acquiring a BIER non-MPLS Generic Label, BNMGL, in the node information, and encapsulating the BNMGL and a BIER packet payload in a non-MPLS BIER packet format as an MPLS packet.
A treatment apparatus , in particular filter apparatus, for a fluid, in particular for a liquid fluid, having a replaceable treatment unit featuring a housing having a housing pot , a housing cover , at least one inlet for the fluid to be treated and at least one outlet for the treated fluid, and having a connecting head featuring at least one supply line for the fluid to be treated which is connectable to the at least one inlet , and/or at least one discharge line for the treated fluid which is connectable to the at least one outlet , wherein the connecting head and the treatment unit is connectable to each other using a detachable bayonet-type connecting means by executing a plug-in/rotational motion around a connecting axis of the treatment apparatus and the connecting means features at least one housing connecting part on the side of the housing and at least one head connecting part on the side of the connecting head which is actively connectable to one another for connecting the connecting means , wherein the housing connecting part and the head connecting part respectively feature at least one functional element mutually complementary in the circumferential direction around the connecting axis and which is actively connectable to one another, and the connecting means features at least one pretensioning element for realizing a mechanical pretension with which the mutually complementary functional elements can be pressed against one another, characterized in that the pretensioning element is a spring element having at least two radially outwardly projecting spring arms which feature on their radially exterior front face respectively a straight section which is aligned tangentially to an edge extending circularly around the connecting axis . wherein the connecting head and the treatment unit is connectable to each other using a detachable bayonet-type connecting means by executing a plug-in/rotational motion around a connecting axis of the treatment apparatus and the connecting means features at least one housing connecting part on the side of the housing and at least one head connecting part on the side of the connecting head which is actively connectable to one another for connecting the connecting means , wherein the housing connecting part and the head connecting part respectively feature at least one functional element mutually complementary in the circumferential direction around the connecting axis and which is actively connectable to one another, and the connecting means features at least one pretensioning element for realizing a mechanical pretension with which the mutually complementary functional elements can be pressed against one another, characterized in that the pretensioning element is a spring element having at least two radially outwardly projecting spring arms which feature on their radially exterior front face respectively a straight section which is aligned tangentially to an edge extending circularly around the connecting axis .
A dry ice machine , comprising: an outer casing including a main housing defining a liquid containing space (R1); a lifting assembly including a lifting member and an operating member , wherein the lifting member is movably disposed on the outer casing , and the operating member is connected to the lifting member to drive the lifting member to move along a lifting axis (Z1) relative to the outer casing ; a dry ice container detachably assembled to the lifting member , wherein an internal space of the dry ice container is in spatial communication with the liquid containing space (R1); a fog outlet pipe detachably assembled to the outer casing and including a backflow section and a bending section connected to the backflow section to guide the fog generated in the liquid containing space (R1) to the outside of the outer casing ; wherein the main housing further includes a plurality of positioning structures , and the positioning structures are located on an outer side wall of the main housing and arranged corresponding to a moving path of the lifting member ; wherein the operating member further includes an elastic member for providing an elastic force to drive the operating member to be engaged with one of the positioning structures when no external force is applied to the operating member . an outer casing including a main housing defining a liquid containing space (R1); a lifting assembly including a lifting member and an operating member , wherein the lifting member is movably disposed on the outer casing , and the operating member is connected to the lifting member to drive the lifting member to move along a lifting axis (Z1) relative to the outer casing ; a dry ice container detachably assembled to the lifting member , wherein an internal space of the dry ice container is in spatial communication with the liquid containing space (R1); a fog outlet pipe detachably assembled to the outer casing and including a backflow section and a bending section connected to the backflow section to guide the fog generated in the liquid containing space (R1) to the outside of the outer casing ; wherein the main housing further includes a plurality of positioning structures , and the positioning structures are located on an outer side wall of the main housing and arranged corresponding to a moving path of the lifting member ; wherein the operating member further includes an elastic member for providing an elastic force to drive the operating member to be engaged with one of the positioning structures when no external force is applied to the operating member .
An electronic device comprising: a display configured to output display data; an antenna arranged on a display area of the display ; at least one processor electrically connected to the display ; and a memory electrically connected to the processor , wherein the memory stores instructions that, when executed, cause the processor to correct the display data based on characteristic information of the antenna when a display location of the display data overlaps an arranged location of the antenna; wherein the characteristic information includes at least one of a type of the antenna, a color of the antenna, transparency of the antenna, or reflectivity of the antenna. a display configured to output display data; an antenna arranged on a display area of the display ; at least one processor electrically connected to the display ; and a memory electrically connected to the processor , wherein the memory stores instructions that, when executed, cause the processor to correct the display data based on characteristic information of the antenna when a display location of the display data overlaps an arranged location of the antenna; wherein the characteristic information includes at least one of a type of the antenna, a color of the antenna, transparency of the antenna, or reflectivity of the antenna.
A preparation method for a compound of formula I, comprising the following steps: a) subjecting a compound of formula 2 to an oxidization reaction to obtain a compound of formula 3, b) attaching a protecting group to the compound of formula 3 to obtain a compound of formula 4, c) reacting the compound of formula 4 with acetaldehyde to obtain a compound of formula 5, d) subjecting the compound of formula 5 to a reduction reaction to obtain a compound of formula 6, e) converting a cyano group of the compound of formula 6 to a carboxyl group to give the compound of formula I, wherein, said R 1 and R 2 are each independently selected from a silyl ether protecting group. a) subjecting a compound of formula 2 to an oxidization reaction to obtain a compound of formula 3, b) attaching a protecting group to the compound of formula 3 to obtain a compound of formula 4, c) reacting the compound of formula 4 with acetaldehyde to obtain a compound of formula 5, d) subjecting the compound of formula 5 to a reduction reaction to obtain a compound of formula 6, e) converting a cyano group of the compound of formula 6 to a carboxyl group to give the compound of formula I, wherein, said R 1 and R 2 are each independently selected from a silyl ether protecting group.