mhurhangee/ep-ind-claims huggingface dataset:
A controller for a blood treatment equipment, said equipment comprising at least a treatment unit including a semipermeable membrane separating the treatment unit in a first compartment for the circulation of blood and in a second compartment for the circulation a of a treatment liquid, the controller being adapted to: receive one or more entries of measured information measured during the course of a treatment procedure, calculate from said measured information a value of at least a significant parameter indicative of the progress of an extracorporeal blood treatment carried out by the equipment, the significant parameter being the actual dialysance D Ti or clearance K Ti of the blood treatment unit associated with the equipment for a specific solute after a time T i elapsed from the beginning of the treatment; characterized in that the controller is further adapted to: receive prescribed parameters including a total clearance dosage value KT p to be achieved at the end of the treatment, and a prescribed total weight loss WL p to be achieved at the end of the treatment, determine a prescribed rate R by dividing said total weight loss WL p to be achieved at the end of the treatment by said total dialysis dose value KT p to be achieved at the end of the treatment, and then control (33, 34) the rate of fluid removal from the second compartment of the blood treatment unit, said control comprising keeping said rate of fluid removal UF Ti at time T i substantially equal to the product of said prescribed rate R by the instantaneous clearance K Ti or instantaneous dialysance value D Ti measured at treatment time T i to synchronize achievement of both said prescribed parameters. receive one or more entries of measured information measured during the course of a treatment procedure, calculate from said measured information a value of at least a significant parameter indicative of the progress of an extracorporeal blood treatment carried out by the equipment, the significant parameter being the actual dialysance D Ti or clearance K Ti of the blood treatment unit associated with the equipment for a specific solute after a time T i elapsed from the beginning of the treatment; receive prescribed parameters including a total clearance dosage value KT p to be achieved at the end of the treatment, and a prescribed total weight loss WL p to be achieved at the end of the treatment, determine a prescribed rate R by dividing said total weight loss WL p to be achieved at the end of the treatment by said total dialysis dose value KT p to be achieved at the end of the treatment, and then control (33, 34) the rate of fluid removal from the second compartment of the blood treatment unit, said control comprising keeping said rate of fluid removal UF Ti at time T i substantially equal to the product of said prescribed rate R by the instantaneous clearance K Ti or instantaneous dialysance value D Ti measured at treatment time T i to synchronize achievement of both said prescribed parameters.
Milking device, comprising a conduit for transferring milk, wherein the conduit is provided with at least one flexible wall, which divides the conduit into at least one milk duct and at least one secondary duct, wherein the at least one milk duct and the at least one secondary duct extend along a longitudinal axis of the conduit, wherein the at least one milk duct can be substantially emptied by pressing through filling the at least one secondary duct, wherein the at least one secondary duct of the conduit is in communication with at least one cooling water supply.
A process for forming a precipitate-free solution, which process comprises bringing together, in an aqueous medium, i) at least one phosphorus compound, ii) at least one Group VI metal compound, iii) at least one Group VIII metal compound, and iv) an additive which is a) tetraethylene glycol, b) polyethylene glycol having an average molecular weight in the range of 200 to 400, c) a mixture of tetraethylene glycol and polyethylene glycol having an average molecular weight in the range of 200 to 400, or d) a mixture of tetraethylene glycol and/or polyethylene glycol having an average molecular weight in the range of 200 to 400 and one or more of monoethylene glycol, diethylene glycol, and triethylene glycol, where the molar ratio of additive to the total moles of Group VI metal and Group VIII metal is in the range of 0.36:1 to 0.6:1, and where the atomic ratio of phosphorus to Group VI metal is at least 0.33:1, to form a solution, characterized in that the solution has a concentration of Group VI metal of 1.35 mol/L to 5.9 mol/L. i) at least one phosphorus compound, ii) at least one Group VI metal compound, iii) at least one Group VIII metal compound, and iv) an additive which is a) tetraethylene glycol, b) polyethylene glycol having an average molecular weight in the range of 200 to 400, c) a mixture of tetraethylene glycol and polyethylene glycol having an average molecular weight in the range of 200 to 400, or d) a mixture of tetraethylene glycol and/or polyethylene glycol having an average molecular weight in the range of 200 to 400 and one or more of monoethylene glycol, diethylene glycol, and triethylene glycol, a) tetraethylene glycol, b) polyethylene glycol having an average molecular weight in the range of 200 to 400, c) a mixture of tetraethylene glycol and polyethylene glycol having an average molecular weight in the range of 200 to 400, or d) a mixture of tetraethylene glycol and/or polyethylene glycol having an average molecular weight in the range of 200 to 400 and one or more of monoethylene glycol, diethylene glycol, and triethylene glycol, where the molar ratio of additive to the total moles of Group VI metal and Group VIII metal is in the range of 0.36:1 to 0.6:1, and where the atomic ratio of phosphorus to Group VI metal is at least 0.33:1, to form a solution,
A method of communication between a server device and a client device, comprising the following steps, at the server device: receiving, from the client device, a HyperText Transfer Protocol, HTTP, request to obtain first data, wherein the HTTP request includes first data identifying information allowing identification of the first data on the server device and includes one or more additional header fields containing information for identifying second data other than the first data requested by the HTTP request, wherein the information for identifying second data allows the server device to determine whether the client device is to receive the second data; sending the first data to the client device in response to the HTTP request received from the client device; determining the second data on the server device, using the one or more additional header fields; and pushing, to the client device, using the push feature of HTTP/2, the second data so determined using the one or more additional header fields contained in the HTTP request received from the client device to obtain the first data. receiving, from the client device, a HyperText Transfer Protocol, HTTP, request to obtain first data, wherein the HTTP request includes first data identifying information allowing identification of the first data on the server device and includes one or more additional header fields containing information for identifying second data other than the first data requested by the HTTP request, wherein the information for identifying second data allows the server device to determine whether the client device is to receive the second data; sending the first data to the client device in response to the HTTP request received from the client device; determining the second data on the server device, using the one or more additional header fields; and pushing, to the client device, using the push feature of HTTP/2, the second data so determined using the one or more additional header fields contained in the HTTP request received from the client device to obtain the first data.
A connection reactivation method, comprising: receiving(S501, S701, S901), by an access and mobility management function entity, a first message from a session management function entity, wherein the first message carries a first reactivation indication used to instruct to reactivate a connection of a protocol data unit, PDU, session, and the PDU session has been established on a non-3GPP side by user equipment which accesses a core network by using both a 3GPP access network and the non-3GPP access network; and when the user equipment is in an idle state on the non-3GPP side, sending(S502, S702, S902), by the access and mobility management function entity, a second message to the user equipment based on the first reactivation indication by using the 3GPP access network, wherein the second message carries a reactivation indication comprising: a radio access technology type of the PDU session; receiving (S705, S904), by using the 3GPP access network, a service request for reactivating the PDU session from UE. receiving(S501, S701, S901), by an access and mobility management function entity, a first message from a session management function entity, wherein the first message carries a first reactivation indication used to instruct to reactivate a connection of a protocol data unit, PDU, session, and the PDU session has been established on a non-3GPP side by user equipment which accesses a core network by using both a 3GPP access network and the non-3GPP access network; and when the user equipment is in an idle state on the non-3GPP side, sending(S502, S702, S902), by the access and mobility management function entity, a second message to the user equipment based on the first reactivation indication by using the 3GPP access network, wherein the second message carries a reactivation indication comprising: a radio access technology type of the PDU session; receiving (S705, S904), by using the 3GPP access network, a service request for reactivating the PDU session from UE.
A method for producing (2 S,5 S)/(2 R,S R)-5-hydroxypiperidine-2-carboxylic acid represented by the formula below: the method comprising (i) the step 4 of: removing the protecting group from the hydroxyl group in a compound represented by the formula below: (wherein P represents a protecting group, R 3 represents an alkyl group containing 1 to 4 carbon atoms, and A represents an alkyl group containing 1 to 10 carbon atoms, an aryl group containing 6 to 12 carbon atoms, an alkyloxy group containing 1 to 4 carbon atoms, or an aralkyloxy group containing 7 to 20 carbon atoms) to synthesize a compound represented by the formula below: (wherein R 3 represents an alkyl group containing 1 to 4 carbon atoms, and A represents an alkyl group containing 1 to 10 carbon atoms, an aryl group containing 6 to 12 carbon atoms, an alkyloxy group containing 1 to 4 carbon atoms, or an aralkyloxy group containing 7 to 20 carbon atoms).
Modular trial implant system comprising at least one trial implant (18; 118) which comprises at least one first trial implant part (12; 112) and at least one second trial implant part (16; 116) connectable to the at least one first trial implant part (12; 112), wherein at least one connecting device (50; 150) is provided for connecting the at least one first and the at least one second trial implant part (12, 16; 112, 116) in a trial implantation position, wherein the at least one connecting device (50; 150) comprises at least one first and at least one second connecting element (52, 54; 152, 154), wherein the one connecting element (52; 152) is arranged at the at least one first trial implant part (12; 112) and wherein the other connecting element (54; 154) is arranged at the at least one second trial implant part (16; 116) and wherein the at least one first and the at least one second connecting element (52, 54; 152, 154) are configured in corresponding relationship to each other and engage with each other in the trial implantation position, characterized in that the at least one connecting device (50; 150) is configured in the form of a latch connection.
A customized tissue thickness compensator for use with a surgical stapler, wherein said customized tissue thickness compensator is prepared by a process comprising the steps of: obtaining a tissue thickness compensator; transitioning a portion of said tissue thickness compensator from an original state to a glassy state; manipulating said portion of said tissue thickness compensator; allowing said portion of said tissue thickness compensator to return from said glassy state to a non-glassy state; and releasing said portion of said tissue thickness compensator, characterized in that the obtained tissue thickness compensator is of a first shape with a flat, top tissue contacting surface, and the manipulation step produces a concave top tissue contacting surface while the remainder of said tissue thickness compensator retains the flat surface. obtaining a tissue thickness compensator; transitioning a portion of said tissue thickness compensator from an original state to a glassy state; manipulating said portion of said tissue thickness compensator; allowing said portion of said tissue thickness compensator to return from said glassy state to a non-glassy state; and releasing said portion of said tissue thickness compensator, characterized in that the obtained tissue thickness compensator is of a first shape with a flat, top tissue contacting surface, and the manipulation step produces a concave top tissue contacting surface while the remainder of said tissue thickness compensator retains the flat surface.
A method for the processing of a sample fluid for optical processing, wherein said sample fluid comprises different components (M, C+M) with magnetic particles, said method comprising the following steps: a) introducing the sample fluid into a first compartment of a container; b) letting in a first phase at least one selected component of the sample pass through a filtering element that separates the first compartment from a second compartment while the passage of at least one other component (C+M) is blocked; c) collecting the at least one other component (C+M) of the sample on an optical surface that is disposed in the first compartment or collecting the at least one selected component on an optical surface that is disposed in the second compartment of the container; and d) generating during the first phase a magnetic field with a nonzero field gradient across the filtering element and with field lines that are perpendicular to the filtering element; the method being characterized by: e) generating after the first phase a magnetic field with field lines that are parallel to the filtering element. a) introducing the sample fluid into a first compartment of a container; b) letting in a first phase at least one selected component of the sample pass through a filtering element that separates the first compartment from a second compartment while the passage of at least one other component (C+M) is blocked; c) collecting the at least one other component (C+M) of the sample on an optical surface that is disposed in the first compartment or collecting the at least one selected component on an optical surface that is disposed in the second compartment of the container; and d) generating during the first phase a magnetic field with a nonzero field gradient across the filtering element and with field lines that are perpendicular to the filtering element;
Method performed by a vehicle user identification node for enabling configuration of vehicle user settings of a vehicle, the method comprising: - receiving first user pattern data, - requesting user identification data based on first user pattern data, - receiving user identification data, - transmitting user identification data to a vehicle settings node for configuration of vehicle user settings of the vehicle, characterized in that the first user pattern data comprises first user walking pattern data and wherein said user identification data comprises said first user walking pattern data. - receiving first user pattern data, - requesting user identification data based on first user pattern data, - receiving user identification data, - transmitting user identification data to a vehicle settings node for configuration of vehicle user settings of the vehicle, characterized in that the first user pattern data comprises first user walking pattern data and wherein said user identification data comprises said first user walking pattern data.
A portable electronic device, comprising: an enclosure configured to define an internal volume; a vision subsystem positioned in the internal volume, the vision subsystem configured to provide object recognition of an object that is external to the enclosure, the vision subsystem comprising a camera module and a light emitting module; a bracket assembly configured to hold the vision subsystem, the bracket assembly supported by the enclosure and free of affixation to the enclosure, the bracket assembly comprising: a first bracket defining an opening configured to receive the camera module; a module carrier secured to the first bracket, wherein the light emitting module is carried by the module carrier; a second bracket secured to the first bracket, the second bracket comprising a first spring element and a second spring element configured to support the bracket assembly, wherein the camera module and the light emitting module, when positioned in the bracket assembly, are separated by a predetermined distance; and wherein the first and second spring elements extend from the bracket assembly and are configured to bias the vision subsystem away from the enclosure. an enclosure configured to define an internal volume; a vision subsystem positioned in the internal volume, the vision subsystem configured to provide object recognition of an object that is external to the enclosure, the vision subsystem comprising a camera module and a light emitting module; a bracket assembly configured to hold the vision subsystem, the bracket assembly supported by the enclosure and free of affixation to the enclosure, the bracket assembly comprising: a first bracket defining an opening configured to receive the camera module; a module carrier secured to the first bracket, wherein the light emitting module is carried by the module carrier; a second bracket secured to the first bracket, the second bracket comprising a first spring element and a second spring element configured to support the bracket assembly, wherein the camera module and the light emitting module, when positioned in the bracket assembly, are separated by a predetermined distance; and wherein the first and second spring elements extend from the bracket assembly and are configured to bias the vision subsystem away from the enclosure. a first bracket defining an opening configured to receive the camera module; a module carrier secured to the first bracket, wherein the light emitting module is carried by the module carrier; a second bracket secured to the first bracket, the second bracket comprising a first spring element and a second spring element configured to support the bracket assembly, wherein the camera module and the light emitting module, when positioned in the bracket assembly, are separated by a predetermined distance; and wherein the first and second spring elements extend from the bracket assembly and are configured to bias the vision subsystem away from the enclosure.
A computer-implemented method for enabling a time ordered sequence of messages to be later replayed in an event-driven and/or micro-services based architectures, the computer-implemented method being performed by at least one processor, the method comprising: responsive to receiving messages (114) which do not include any sort of timing information, providing, by the at least one processor, time-enhanced messages as a time series (114) by incorporating timing data into each of the messages (114); storing, by the at least one processor, the time-enhanced messages (114) on at least one data storage device; receiving, by the at least one processor, a request for a particular sequence of the messages from a consumer device executing a consumer application, the consumer application including a message listener; and responsive to the request, retrieving, by the at least one processor, the time-enhanced messages (114) from the at least one storage device and communicating the time-enhanced messages (114) in a flow instance to the consumer device, wherein the flow instance receives a flow of the time series (114) of the time-enhanced messages (114) from the data storage and is capable of being controlled by the client application, and wherein the flow instance operates independently of other flow instances to publish the time-enhanced messages (114) to the message listener. responsive to receiving messages (114) which do not include any sort of timing information, providing, by the at least one processor, time-enhanced messages as a time series (114) by incorporating timing data into each of the messages (114); storing, by the at least one processor, the time-enhanced messages (114) on at least one data storage device; receiving, by the at least one processor, a request for a particular sequence of the messages from a consumer device executing a consumer application, the consumer application including a message listener; and responsive to the request, retrieving, by the at least one processor, the time-enhanced messages (114) from the at least one storage device and communicating the time-enhanced messages (114) in a flow instance to the consumer device, wherein the flow instance receives a flow of the time series (114) of the time-enhanced messages (114) from the data storage and is capable of being controlled by the client application, and wherein the flow instance operates independently of other flow instances to publish the time-enhanced messages (114) to the message listener.
A piezoelectric module comprising: a plate-shaped piezoelectric composite for generating bending vibration by the impression of an AC voltage, a plurality of elastic bodies, one ends of which are bonded to a main surface of the piezoelectric composite, the elastic bodies transmitting vibration of the piezoelectric composite, and a vibration plate having a main surface which is bonded to other ends of the elastic bodies, wherein there is a position of a centroid of the piezoelectric composite between the plurality of elastic bodies, and the piezoelectric composite comprises a plurality of piezoelectric elements, each of which is identical and formed in a rectangular plate, and each of the piezoelectric elements is partially connected to each other piezoelectric element. a plate-shaped piezoelectric composite for generating bending vibration by the impression of an AC voltage, a plurality of elastic bodies, one ends of which are bonded to a main surface of the piezoelectric composite, the elastic bodies transmitting vibration of the piezoelectric composite, and a vibration plate having a main surface which is bonded to other ends of the elastic bodies, wherein there is a position of a centroid of the piezoelectric composite between the plurality of elastic bodies, and the piezoelectric composite comprises a plurality of piezoelectric elements, each of which is identical and formed in a rectangular plate, and each of the piezoelectric elements is partially connected to each other piezoelectric element.