mhurhangee/ep-ind-claims huggingface dataset:
Method for characterising a power semiconductor module, which has at least one power semiconductor component with the steps: - Determining a thermal model of the power semiconductor module at a reference time point, which lies before a commissioning of the power semiconductor module, wherein, for creation of the thermal model, a thermal impedance of the power semiconductor module describing a thermal path of the power semiconductor module is determined, - Establishing a reference temperature (T j,zth) on the basis of the thermal model of the power semiconductor module, - Measuring at least one temperature-sensitive electrical parameter (TSEP) of the power semiconductor module at at least one later point in time compared to the reference time point, during operation of the power semiconductor module, - Establishing a current temperature (T j,tsep) of the power semiconductor module from the at least one measured temperature-sensitive electrical parameter (TSEP) of the power semiconductor module, - Establishing a temperature difference (ΔT) between the current temperature (T j,tsep) and the reference temperature (T j,zth) and - Determining a deterioration of the power semiconductor module on the basis of the temperature difference (ΔT) established. - Determining a thermal model of the power semiconductor module at a reference time point, which lies before a commissioning of the power semiconductor module, wherein, for creation of the thermal model, a thermal impedance of the power semiconductor module describing a thermal path of the power semiconductor module is determined, - Establishing a reference temperature (T j,zth) on the basis of the thermal model of the power semiconductor module, - Measuring at least one temperature-sensitive electrical parameter (TSEP) of the power semiconductor module at at least one later point in time compared to the reference time point, during operation of the power semiconductor module, - Establishing a current temperature (T j,tsep) of the power semiconductor module from the at least one measured temperature-sensitive electrical parameter (TSEP) of the power semiconductor module, - Establishing a temperature difference (ΔT) between the current temperature (T j,tsep) and the reference temperature (T j,zth) and - Determining a deterioration of the power semiconductor module on the basis of the temperature difference (ΔT) established.
A dispersion of particulate daminozide in an aprotic organic liquid, characterised in that the dispersion comprises a dispersant system comprising a poly(hydroxy fatty acid) and an alkylated N-vinylpyrrolidinone polymer.
A calcium-containing composition comprising porous or hollow microstructures or particulates containing nitric oxide or a nitric oxide forming compound, wherein the microstructures comprise hydroxylapatite, tribasic calcium phosphate, tetracalcium phosphate, dicalcium phosphate, calcium carbonate, calcium oxide, glass-containing calcium phosphate, or a mixture thereof.
A method for realizing disaster tolerance backup, the method is executed in a first device with an active-standby function, and the first device with the active-standby function is connected to a routing device, wherein the method comprising: determining, by the first device with an active-standby function, a current state of the first device, wherein the current state comprises an active state or a standby state; and issuing, by the first device, and in response to determining that the current state is the active state, reachable route information to the connected routing device, and the reachable route information is issued by using a layer 3 protocol message; wherein there is a second device of which a current state is the standby state, and the first device and the second device have a same IP address and they are backup devices for each other; the reachable route information comprises route information relevant to the IP address, so that the IP address is reachable through a route, and the first device and the second device are located in different layer 2 switching networks and they interwork through a layer 3 network; wherein the second device is connected to a second routing device which is different from the routing device connected with the first device. determining, by the first device with an active-standby function, a current state of the first device, wherein the current state comprises an active state or a standby state; and issuing, by the first device, and in response to determining that the current state is the active state, reachable route information to the connected routing device, and the reachable route information is issued by using a layer 3 protocol message; wherein there is a second device of which a current state is the standby state, and the first device and the second device have a same IP address and they are backup devices for each other; the reachable route information comprises route information relevant to the IP address, so that the IP address is reachable through a route, and the first device and the second device are located in different layer 2 switching networks and they interwork through a layer 3 network; wherein the second device is connected to a second routing device which is different from the routing device connected with the first device.
A pump system, comprising: a turbine shaft including a turbine disposed thereon to rotate the turbine shaft at a turbine shaft speed due to fluid flow through the turbine; a centrifugal pump directly connected to the turbine shaft and configured to pump hydraulic fluid at the turbine shaft speed; a bleed port disposed downstream of the centrifugal pump; a valve configured to be fluidly connected to the bleed port and configured to meter flow to the turbine to regulate the turbine shaft speed at least partially as a function of pressure from the bleed port; and further comprising a speed reduction system operatively connected to the turbine shaft and configured to have an output speed less than the turbine shaft speed, wherein the valve is operatively connected to the speed reduction system and configured to operate at the output speed, wherein the valve is configured to meter flow to the turbine to regulate the turbine shaft speed at least partially as a function of the output speed; characterised in that the speed reduction system includes a turbine shaft gear operatively disposed on the turbine shaft and a valve gear operatively disposed around a valve shaft of the valve to rotate the valve shaft at the output speed; and wherein the valve gear houses a flyweight governor of the valve disposed around the valve shaft such that the flyweight governor is configured to move the valve toward a closed position when rotated above a predetermined speed in order to keep the turbine shaft spinning at or below a desired speed. a turbine shaft including a turbine disposed thereon to rotate the turbine shaft at a turbine shaft speed due to fluid flow through the turbine; a centrifugal pump directly connected to the turbine shaft and configured to pump hydraulic fluid at the turbine shaft speed; a bleed port disposed downstream of the centrifugal pump; a valve configured to be fluidly connected to the bleed port and configured to meter flow to the turbine to regulate the turbine shaft speed at least partially as a function of pressure from the bleed port; and further comprising a speed reduction system operatively connected to the turbine shaft and configured to have an output speed less than the turbine shaft speed, wherein the valve is operatively connected to the speed reduction system and configured to operate at the output speed, wherein the valve is configured to meter flow to the turbine to regulate the turbine shaft speed at least partially as a function of the output speed; characterised in that the speed reduction system includes a turbine shaft gear operatively disposed on the turbine shaft and a valve gear operatively disposed around a valve shaft of the valve to rotate the valve shaft at the output speed; and wherein the valve gear houses a flyweight governor of the valve disposed around the valve shaft such that the flyweight governor is configured to move the valve toward a closed position when rotated above a predetermined speed in order to keep the turbine shaft spinning at or below a desired speed.
A method of detecting a cancer specific protein that is enriched on an extracellular vesicle, comprising: contacting an EV containing sample with a surface conjugated with a first antibody directed to an EV molecule to separate said EV from the EV containing sample; removing the EV containing sample from the surface; incubating the surface with a first set of nanoparticles conjugated with a second antibody directed to the cancer specific protein and incubating the surface with a second set of nanoparticles conjugated with a third antibody directed to an EV molecule selected from the group consisting of CD63, CD81, CD9, CD24, CD26, CD10, TSG101, HSP70, Rab-5b, AIP1/Alix, AQP2, FLT1, N-glycan containing a fucose residue, phosphocholine, phosphatidylserine, and sphingomyelin; and detecting whether said cancer specific protein is present in the EV containing sample by detecting binding between the second antibody and the EV, wherein dual binding of the two antibody-conjugated nanoparticles to the EV produces nanoplasmons and said nanoplasmons are detected. contacting an EV containing sample with a surface conjugated with a first antibody directed to an EV molecule to separate said EV from the EV containing sample; removing the EV containing sample from the surface; incubating the surface with a first set of nanoparticles conjugated with a second antibody directed to the cancer specific protein and incubating the surface with a second set of nanoparticles conjugated with a third antibody directed to an EV molecule selected from the group consisting of CD63, CD81, CD9, CD24, CD26, CD10, TSG101, HSP70, Rab-5b, AIP1/Alix, AQP2, FLT1, N-glycan containing a fucose residue, phosphocholine, phosphatidylserine, and sphingomyelin; and detecting whether said cancer specific protein is present in the EV containing sample by detecting binding between the second antibody and the EV, wherein dual binding of the two antibody-conjugated nanoparticles to the EV produces nanoplasmons and said nanoplasmons are detected.
A system for securely transporting medications or other items, the system comprising: a central computer system; a plurality of lockable, separately transportable relay boxes (200, 700), each relay box (20, 700) further comprising: a software controlled lid (201, 701) unlockable upon authorization from the central computer system; a memory storing a globally unique electronically readable identifier; a sensor that can detect unauthorized forced entry to the relay box (200, 700); and a display (304, 703) wherein, for each of the plurality of relay boxes, all electronic components of the respective relay box are isolated into a module removable from the relay box (200, 700); and the system further comprising an electronic network over which the central computer system is configured to authorize access to the interiors of the relay boxes (200, 700). a central computer system; a plurality of lockable, separately transportable relay boxes (200, 700), each relay box (20, 700) further comprising: a software controlled lid (201, 701) unlockable upon authorization from the central computer system; a memory storing a globally unique electronically readable identifier; a sensor that can detect unauthorized forced entry to the relay box (200, 700); and a display (304, 703) wherein, for each of the plurality of relay boxes, all electronic components of the respective relay box are isolated into a module removable from the relay box (200, 700); and the system further comprising an electronic network over which the central computer system is configured to authorize access to the interiors of the relay boxes (200, 700).
Method for managing the authentication of a user of a telecommunications network (1, 2) of an operator, characterized in that it comprises the following steps: - on receipt by an authentication management device, of a request for access to a service provided by the operator of this network by said user, issuing of a request for identification of an authentication server destined for an authentication location server (ALF 300, 300'), said request comprising at least one identifier of said user (user-ID); and - on receipt from the authentication location server of a response comprising an identifier of an authentication server (AAA_ID) associated with said identifier of the user, issuing of a request for authentication of the user at the server identified for the requested service. - on receipt by an authentication management device, of a request for access to a service provided by the operator of this network by said user, issuing of a request for identification of an authentication server destined for an authentication location server (ALF 300, 300'), said request comprising at least one identifier of said user (user-ID); and - on receipt from the authentication location server of a response comprising an identifier of an authentication server (AAA_ID) associated with said identifier of the user, issuing of a request for authentication of the user at the server identified for the requested service.
A method for recovering a radio resource control, RRC, connection from an RRC inactive state in multi-radio access type, RAT, dual connectivity, DC, MR-DC, mode, comprising: receiving, by a terminal in a multi-radio access type, RAT, mode, a paging message triggered by a first node or a second node; determining, by a terminal, whether downlink data from a master node, MN, side arrives or downlink data from a secondary node, SN, side arrives based on first information included in the paging message, wherein the first node is an MN, the second node is an SN, the MN and the SN are part of a DC architecture and adopt different RATs; and sending, by the terminal, an RRC connection recovery message to a third node, wherein the third node is a target node, and the RRC connection recovery message includes second information and the second information is configured for the third node to determine whether the third node is an MN or an SN to correspondingly execute a key and a signaling radio bearer, SRB, recovery process on the MN side or execute a key and a SRB recovery process on the SN side. receiving, by a terminal in a multi-radio access type, RAT, mode, a paging message triggered by a first node or a second node; determining, by a terminal, whether downlink data from a master node, MN, side arrives or downlink data from a secondary node, SN, side arrives based on first information included in the paging message, wherein the first node is an MN, the second node is an SN, the MN and the SN are part of a DC architecture and adopt different RATs; and sending, by the terminal, an RRC connection recovery message to a third node, wherein the third node is a target node, and the RRC connection recovery message includes second information and the second information is configured for the third node to determine whether the third node is an MN or an SN to correspondingly execute a key and a signaling radio bearer, SRB, recovery process on the MN side or execute a key and a SRB recovery process on the SN side.
A method of preparing a separator, comprising: providing a planar and porous substrate having multiple pores; and coating a first slurry on at least one surface of the porous substrate through a slot section to form a porous coating layer, while continuously coating a second slurry on the porous coating layer to form a layer for adhesion with an electrode, the first slurry comprising inorganic particles, a first binder polymer and a first solvent, and the second slurry comprising a second binder polymer and a second solvent, characterised in that the coating of the second slurry on the porous coating layer is done through a slide section adjacent to the slot section, the first slurry is discharged at a rate faster than that of the second slurry, and the first slurry is discharged at a rate of 500 to 2,000 ml/min, and the second slurry is discharged at a rate of 200 to 1,200 ml/min. providing a planar and porous substrate having multiple pores; and coating a first slurry on at least one surface of the porous substrate through a slot section to form a porous coating layer, while continuously coating a second slurry on the porous coating layer to form a layer for adhesion with an electrode, the first slurry comprising inorganic particles, a first binder polymer and a first solvent, and the second slurry comprising a second binder polymer and a second solvent, characterised in that the coating of the second slurry on the porous coating layer is done through a slide section adjacent to the slot section, the first slurry is discharged at a rate faster than that of the second slurry, and the first slurry is discharged at a rate of 500 to 2,000 ml/min, and the second slurry is discharged at a rate of 200 to 1,200 ml/min.
A terminal, comprising a display panel, a camera module, a sensor module, a cover, and a circuit board on which the camera module is disposed; wherein the display panel defines at least one recess; the camera module is received in the at least one recess; the sensor module is adjacent to the camera module for determining a distance between the terminal and an external object; the camera module comprises a base and a lens; the base is disposed on the circuit board; the lens protrudes from the base, and the lens and the base cooperatively form a step; the cover comprises a cover body covering the display panel, the cover body comprises a functional portion, the functional portion is disposed corresponding to the at least one recess in which the camera module is received, characterized in that, the sensor module is disposed on the step of the camera module; and the cover further comprises a first attachment member and a second attachment member; the functional portion comprises a first functional region, a second functional region and a shielding region, the shielding region is located at other parts of the functional portion excepting the first functional region and the second functional region; the first functional region is corresponding to the camera module and configured to allow ambient light to penetrate and reach the camera module; the first attachment member is disposed on a side of the second functional region close to an interior space of the terminal, and corresponds to the sensor module; and the second attachment member is disposed on a side of the shielding region close to the interior space of the terminal, to shield the internal structure of the terminal. the camera module comprises a base and a lens; the base is disposed on the circuit board; the lens protrudes from the base, and the lens and the base cooperatively form a step; the cover comprises a cover body covering the display panel, the cover body comprises a functional portion, the functional portion is disposed corresponding to the at least one recess in which the camera module is received, characterized in that, the sensor module is disposed on the step of the camera module; and the cover further comprises a first attachment member and a second attachment member; the functional portion comprises a first functional region, a second functional region and a shielding region, the shielding region is located at other parts of the functional portion excepting the first functional region and the second functional region; the first functional region is corresponding to the camera module and configured to allow ambient light to penetrate and reach the camera module; the first attachment member is disposed on a side of the second functional region close to an interior space of the terminal, and corresponds to the sensor module; and the second attachment member is disposed on a side of the shielding region close to the interior space of the terminal, to shield the internal structure of the terminal.
A solid-state imaging unit comprising: an image sensor substrate including a light receiving region in which pixels that each convert incoming light to an electric signal are arranged in a matrix; an external terminal that outputs the electric signal, the external terminal being disposed outside the image sensor substrate in a plane direction; a glass substrate disposed to be opposed to the image sensor substrate and the external terminal; a through electrode that couples a wiring line and the external terminal to each other by penetrating an adhesive resin interposed between the wiring line and the external terminal, the wiring line being formed on the glass substrate, and characterised in that the adhesive resin is also formed to be interposed between the light receiving section of the image sensor substrate and the glass substrate and wherein the adhesive resin fills the gaps between the glass substrate and the image sensor substrate. an image sensor substrate including a light receiving region in which pixels that each convert incoming light to an electric signal are arranged in a matrix; an external terminal that outputs the electric signal, the external terminal being disposed outside the image sensor substrate in a plane direction; a glass substrate disposed to be opposed to the image sensor substrate and the external terminal; a through electrode that couples a wiring line and the external terminal to each other by penetrating an adhesive resin interposed between the wiring line and the external terminal, the wiring line being formed on the glass substrate, and characterised in that the adhesive resin is also formed to be interposed between the light receiving section of the image sensor substrate and the glass substrate and wherein the adhesive resin fills the gaps between the glass substrate and the image sensor substrate.
A cleaning robot for the walls and ceiling of a facility, which comprises a mobile carriage in order to move throughout said facility and an articulated hydraulic mechanism fastened to said mobile carriage and equipped with a cleaning head, where said articulated hydraulic mechanism is configured to enable the cleaning head to access the surface of the walls and ceilings that are to be cleaned, said cleaning robot being characterised in that the cleaning head comprises a cleaning surface that in turn comprises projecting perimeter pieces of rubber configured to create a hermetically closed space when they rest on a surface to be cleaned; there being arranged inside said cleaning surface delimited by the perimeter rubber pieces pressurised steam injection areas, mobile brush areas to scrub the surface to be cleaned, and suction areas to collect the cleaning waste water.
Drive device for a motor vehicle, having at least one drive unit and a coolant circuit for controlling the temperature of the at least one drive unit, at least one coolant pump being arranged in the coolant circuit for circulating a coolant containing water in the coolant circuit, the coolant pump being designed as a screw pump and having a drive spindle coupled to a drive and at least one running spindle cooperating with the drive spindle for circulating the coolant, wherein at least one or precisely one of the following spindles has a coating: drive spindle and running spindle, characterised in that a base body of the spindle is made of plastic or comprises plastic, and in that the coating is designed in such a way that it is transferred from the spindle having the coating to the other spindle during operation of the coolant pump.