mhurhangee/patent-ind-claim-en huggingface dataset:
A blood analyzer comprising: a flow cell configured to flow a measurement sample containing blood cells; a first light source configured to irradiate light of a first wavelength on the measurement sample flowing through the flow cell; a second light source configured to irradiate light of a second wavelength which is different from the first wavelength on the measurement sample flowing through the flow cell; a first light receiving part configured to receive a first scattered light obtained by irradiating light from the first light source on the blood cells flowing through the flow cell; a second light receiving part configured to receive a second scattered light obtained by irradiating light from the second light source on the blood cells flowing through the flow cell; and a processing unit configured to obtain values related to the number of red blood cells and the number of white blood cells based on a first scattered light information based on the signals output from the first light receiving part, and a second scattered light information based on the signals output from the second light receiving part, characterized in that the processing unit is configured to obtain, for each red blood cell, the hemoglobin concentration and the red blood cell volume from the first scattered light information and the second scattered light information using conversion information which defines the relationship of the combination of the first scattered light information and the second scattered light information, and the combination of the red blood cell volume and the hemoglobin concentration. a flow cell configured to flow a measurement sample containing blood cells; a first light source configured to irradiate light of a first wavelength on the measurement sample flowing through the flow cell; a second light source configured to irradiate light of a second wavelength which is different from the first wavelength on the measurement sample flowing through the flow cell; a first light receiving part configured to receive a first scattered light obtained by irradiating light from the first light source on the blood cells flowing through the flow cell; a second light receiving part configured to receive a second scattered light obtained by irradiating light from the second light source on the blood cells flowing through the flow cell; and a processing unit configured to obtain values related to the number of red blood cells and the number of white blood cells based on a first scattered light information based on the signals output from the first light receiving part, and a second scattered light information based on the signals output from the second light receiving part, characterized in that the processing unit is configured to obtain, for each red blood cell, the hemoglobin concentration and the red blood cell volume from the first scattered light information and the second scattered light information using conversion information which defines the relationship of the combination of the first scattered light information and the second scattered light information, and the combination of the red blood cell volume and the hemoglobin concentration.
A connector assembly (100;200) comprising: a shroud ; and, a plurality of co-axial radio frequency connectors (110;210) at least partially received in the shroud (150;250) such that the shroud extends around each radio frequency connector and between adjacent radio frequency connectors, each co-axial connector having a front portion (102;202) arranged to mate to a corresponding other co-axial connector and a rear portion (103;203) having terminals (153,154;253,254) for being soldered to a circuit board (10;20), characterised in that the shroud extends to be adjacent to circuit board when soldered to the circuit board in use, and in that the shroud is moulded around the co-axial connectors; the shroud comprising at least one piece of radiowave absorption material (RAM) (151,152;251,252) arranged to absorb radio frequency energy leaking or dispersing from the radio frequency connectors in use, wherein the radiowave absorption material is selected to absorb an expected signal frequency carried by the radio frequency connectors. a shroud ; and, a plurality of co-axial radio frequency connectors (110;210) at least partially received in the shroud (150;250) such that the shroud extends around each radio frequency connector and between adjacent radio frequency connectors, each co-axial connector having a front portion (102;202) arranged to mate to a corresponding other co-axial connector and a rear portion (103;203) having terminals (153,154;253,254) for being soldered to a circuit board (10;20), characterised in that the shroud extends to be adjacent to circuit board when soldered to the circuit board in use, and in that the shroud is moulded around the co-axial connectors; the shroud comprising at least one piece of radiowave absorption material (RAM) (151,152;251,252) arranged to absorb radio frequency energy leaking or dispersing from the radio frequency connectors in use, wherein the radiowave absorption material is selected to absorb an expected signal frequency carried by the radio frequency connectors.
Method for producing a solar cell in superstrate configuration, comprising the steps: a. Making available a transparent substrate , b. Applying a transparent front contact layer , c. Applying a CdS layer , d. Applying a sacrificial layer of a metal-halide compound consisting of Zn as the metal and Fluorine or Chlorine as the halide on the CdS layer e. Applying a CdTe layer on the sacrificial layer and break-up of the sacrificial layer , including diffusion of the major part of the metal ions into the CdS layer and the major part of the halide ions into the CdTe layer , the CdTe layer being deposited as two partial layers, wherein a first partial layer has a thickness of up to 25 % of the total CdTe layer thickness and is formed in a temperature range of room temperature until 200 °C and a second partial layer is formed in a temperature range of 350°C to 550 °C, f. Applying a back contact layer . a. Making available a transparent substrate , b. Applying a transparent front contact layer , c. Applying a CdS layer , d. Applying a sacrificial layer of a metal-halide compound consisting of Zn as the metal and Fluorine or Chlorine as the halide on the CdS layer e. Applying a CdTe layer on the sacrificial layer and break-up of the sacrificial layer , including diffusion of the major part of the metal ions into the CdS layer and the major part of the halide ions into the CdTe layer , the CdTe layer being deposited as two partial layers, wherein a first partial layer has a thickness of up to 25 % of the total CdTe layer thickness and is formed in a temperature range of room temperature until 200 °C and a second partial layer is formed in a temperature range of 350°C to 550 °C, f. Applying a back contact layer .
A water-based fire protection system comprising: a dry pipe or preaction sprinkler system comprising at least one fusible sprinkler , a source of pressurized water , a piping network connected to the at least one fusible sprinkler , one or more drains , and a dry pipe valve coupling the source of pressurized water to the piping network, the piping network pitched toward the one or more drains ; a nitrogen generator coupled to the piping network, the nitrogen generator operable to pressurize the piping network with nitrogen and maintain a system pressure to prevent the water-based fire protection system from opening the dry pipe valve until the water-based fire protection system is actuated; and at least one vent positioned within the piping network, the at least one vent operable to allow gas including oxygen displaced by the nitrogen to exit the piping network while maintaining the system pressure to thereby increase the concentration of nitrogen and decrease the concentration of oxygen in the piping network to reduce or eliminate the rate of corrosion in the piping network. a dry pipe or preaction sprinkler system comprising at least one fusible sprinkler , a source of pressurized water , a piping network connected to the at least one fusible sprinkler , one or more drains , and a dry pipe valve coupling the source of pressurized water to the piping network, the piping network pitched toward the one or more drains ; a nitrogen generator coupled to the piping network, the nitrogen generator operable to pressurize the piping network with nitrogen and maintain a system pressure to prevent the water-based fire protection system from opening the dry pipe valve until the water-based fire protection system is actuated; and at least one vent positioned within the piping network, the at least one vent operable to allow gas including oxygen displaced by the nitrogen to exit the piping network while maintaining the system pressure to thereby increase the concentration of nitrogen and decrease the concentration of oxygen in the piping network to reduce or eliminate the rate of corrosion in the piping network.
A method of implementing wake lock aware scheduling on a computing device, comprising: receiving a wake lock request from an application by a wake lock profiler ; acquiring, by the wake lock profiler, wake lock information of a wake lock event associated with the wake lock request, wherein the wake lock information includes a wake lock time parameter relating to a duration of the wake lock event; sending, by the wake lock profiler, a hint including the wake lock time parameter; receiving the hint by a scheduler ; determining, by the scheduler, whether a first ready job can execute during the duration of the wake lock event specified in the hint, wherein the first ready job is maintained in a list of ready jobs waiting to i) execute during an upcoming/existing wake lock, or ii) acquire a wake lock to execute; and sending, by the scheduler, a request to the wake lock profiler for permission to schedule the first ready job for execution during the wake lock event in response to determining that the first ready job can execute during the wake lock event. receiving a wake lock request from an application by a wake lock profiler ; acquiring, by the wake lock profiler, wake lock information of a wake lock event associated with the wake lock request, wherein the wake lock information includes a wake lock time parameter relating to a duration of the wake lock event; sending, by the wake lock profiler, a hint including the wake lock time parameter; receiving the hint by a scheduler ; determining, by the scheduler, whether a first ready job can execute during the duration of the wake lock event specified in the hint, wherein the first ready job is maintained in a list of ready jobs waiting to i) execute during an upcoming/existing wake lock, or ii) acquire a wake lock to execute; and sending, by the scheduler, a request to the wake lock profiler for permission to schedule the first ready job for execution during the wake lock event in response to determining that the first ready job can execute during the wake lock event.
A floating structure comprising: a floating main structure ; a tank that is provided in the floating main structure and includes a tank body capable of storing liquefied gas therein; a receiving part that is disposed below the tank to cover the tank from below and includes a receiving surface and a recess recessed from the receiving surface ; a pump that is provided in the recess ; and a return line that is connected to the pump , characterized in that the tank includes a heat shield wall covering an outer surface of the tank body , and the return line returns the liquefied gas pumped by the pump into the tank body . a floating main structure ; a tank that is provided in the floating main structure and includes a tank body capable of storing liquefied gas therein; a receiving part that is disposed below the tank to cover the tank from below and includes a receiving surface and a recess recessed from the receiving surface ; a pump that is provided in the recess ; and a return line that is connected to the pump , characterized in that the tank includes a heat shield wall covering an outer surface of the tank body , and the return line returns the liquefied gas pumped by the pump into the tank body .
A time-sensitive networking communication method, comprising: receiving (S510), by an application function network element from a session management network element, a virtual switching node identifier, wherein the virtual switching node identifier identifies a virtual switching node that serves as a logical switching node in a time-sensitive network and that comprises the application function network element, a user plane function network element and a user terminal, wherein a physical port identifier identifies a physical port of the virtual switching node, and wherein the physical port is on the user plane function network element; receiving (S510), by the application function network element from the session management network element, a virtual port identifier identifing a virtual port of the virtual switching node on the user terminal, wherein the virtual port corresponds to a PDU session established for the user terminal; obtaining (S515), by the application function network element, attribute information of the virtual switching node, wherein the attribute information comprises first attribute information of the physical port and second attribute information of the virtual port; and sending (S516), by the application function network element, the attribute information to a network configuration network element in the time-sensitive network for registering or updating the virtual switching node. receiving (S510), by an application function network element from a session management network element, a virtual switching node identifier, wherein the virtual switching node identifier identifies a virtual switching node that serves as a logical switching node in a time-sensitive network and that comprises the application function network element, a user plane function network element and a user terminal, wherein a physical port identifier identifies a physical port of the virtual switching node, and wherein the physical port is on the user plane function network element; receiving (S510), by the application function network element from the session management network element, a virtual port identifier identifing a virtual port of the virtual switching node on the user terminal, wherein the virtual port corresponds to a PDU session established for the user terminal; obtaining (S515), by the application function network element, attribute information of the virtual switching node, wherein the attribute information comprises first attribute information of the physical port and second attribute information of the virtual port; and sending (S516), by the application function network element, the attribute information to a network configuration network element in the time-sensitive network for registering or updating the virtual switching node.
A force sensor comprising: a substrate including a proximal surface and a distal surface ; a plurality of sensing elements (Se) coupled to the distal surface of the substrate for sensing force along a load path extending in a distal to proximal direction; a seal including a base wall and a flange extending proximally from the base wall and around an entire outer perimeter of the base wall, the flange positioned against the distal surface of the substrate to define a cavity (C) between the base wall of the seal and the distal surface of the substrate, the plurality of sensing elements disposed within the cavity; and a cover plate positioned over the seal in the distal direction and fixed to the substrate, the cover plate applying a closure force on the seal causing the seal to firmly engage the substrate to inhibit the ingress of fluids into the cavity. a substrate including a proximal surface and a distal surface ; a plurality of sensing elements (Se) coupled to the distal surface of the substrate for sensing force along a load path extending in a distal to proximal direction; a seal including a base wall and a flange extending proximally from the base wall and around an entire outer perimeter of the base wall, the flange positioned against the distal surface of the substrate to define a cavity (C) between the base wall of the seal and the distal surface of the substrate, the plurality of sensing elements disposed within the cavity; and a cover plate positioned over the seal in the distal direction and fixed to the substrate, the cover plate applying a closure force on the seal causing the seal to firmly engage the substrate to inhibit the ingress of fluids into the cavity.
An image forming apparatus comprising: an image former to change a transfer condition while printing a calibration chart in which patches of different colors are repeatedly arranged in a sub-scanning direction; a scanner to scan the printed calibration chart ; and a processor to: determine an image defect under each transfer condition using the scanned calibration chart , and set a transfer condition of the image former based on the determined image defect under each transfer condition, wherein the processor determines at least one image defect from among a blur defect, a white spot defect, a poor transfer defect, or a retransfer defect using color patches in the scanned calibration chart , wherein the image former is configured to change the transfer condition by changing a voltage or current used during a transfer process while printing the calibration chart . an image former to change a transfer condition while printing a calibration chart in which patches of different colors are repeatedly arranged in a sub-scanning direction; a scanner to scan the printed calibration chart ; and a processor to: determine an image defect under each transfer condition using the scanned calibration chart , and set a transfer condition of the image former based on the determined image defect under each transfer condition, wherein the processor determines at least one image defect from among a blur defect, a white spot defect, a poor transfer defect, or a retransfer defect using color patches in the scanned calibration chart , wherein the image former is configured to change the transfer condition by changing a voltage or current used during a transfer process while printing the calibration chart . determine an image defect under each transfer condition using the scanned calibration chart , and set a transfer condition of the image former based on the determined image defect under each transfer condition, wherein the processor determines at least one image defect from among a blur defect, a white spot defect, a poor transfer defect, or a retransfer defect using color patches in the scanned calibration chart , wherein the image former is configured to change the transfer condition by changing a voltage or current used during a transfer process while printing the calibration chart .
Method for producing a filter material for fluids, in particular hydraulic fluids, wherein a filter medium having at least one layer is joined in flat areas on at least one side surface to a supporting structure which is partially made from a plastics material, the filter medium and the supporting structure being joined by means of lamination, characterised in that said supporting structure is laminated as a coating on the filter medium and in that the supporting structure is applied to the filter medium by a dipping method or spread coating method, wherein, in the dipping method, a mask is placed on the filter medium and this is then dipped in a bath with material containing plastic for the supporting structure and, in the spread coating method, the elements forming the supporting structure are applied to the filter medium in a pattern.
Multipolar rotor for an electric motor , with a rotor body and several permanent magnets distributed over a circumference of the rotor, each permanent magnet having a first longitudinal side and a second longitudinal side opposite the first longitudinal side, the first and second longitudinal sides each facing an adjacent permanent magnet, wherein between the first and second longitudinal sides there is a central plane of the respective permanent magnet extending radially with respect to an axis of the rotor, and wherein one of the two magnetic poles of the permanent magnet is located on the first longitudinal side and one of the two magnetic poles of the permanent magnet is located on the second longitudinal side, the permanent magnet being magnetised in this way, in that there is an angle Φ greater than 0° between both a magnetic flux vector entering the permanent magnet on the first longitudinal side and a magnetic flux vector exiting the permanent magnet on the second longitudinal side on the one hand and a tangent running orthogonally to the centre plane of the permanent magnet on the outer circumference of the rotor on the other hand, wherein the magnetic flux vector entering the permanent magnet has, on the first longitudinal side , a component directed radially towards the axis of the rotor and away from the tangent with respect to the axis, and wherein the magnetic flux vector emerging from the permanent magnet has on the second longitudinal side a component directed radially away from the axis of the rotor with respect to the axis and towards the tangent , wherein the permanent magnets are inserted in recesses of the rotor body and the recesses taper from the interior of the rotor towards the outer circumference of the rotor , the permanent magnets also taper from the interior of the rotor towards the outer circumference of the rotor , the permanent magnets having a trapezoidal cross-section, the permanent magnets are magnetized in such a way that the magnetic flux vector on both the first longitudinal side and the second longitudinal side is oriented orthogonally to the respective longitudinal side, characterised in that each permanent magnet consists of two magnet halves (3.1, 3.2).