mhurhangee/patent-ind-claim-en huggingface dataset:
A pulse generation system for applying high voltage electrical pulses to a human or animal patient, a test load, a tissue sample, or isolated circulating tumor cells from a subject, comprising: a controller ; an output terminal; a driver circuit ; and a plurality of pulse generator circuits, the plurality of pulse generator circuits electrically coupled in parallel, wherein the controller is configured to cause an input signal pulse to be transmitted to the driver circuit , and the driver circuit , upon receiving the input signal pulse, transmits a driving signal pulse to any selected one or more of the plurality of pulse generator circuits, and to cause the driving signal pulse to not be transmitted to any other unselected one or more circuits of the plurality of pulse generator circuits, and wherein each of the pulse generator circuits is configured to generate at least a portion of an output voltage pulse at the output terminal in response to the driving signal pulse being transmitted thereto, the other unselected one or more pulse generator circuits that do not receive the driving signal pulse do not generate any portion of the output voltage pulse. a controller ; an output terminal; a driver circuit ; and a plurality of pulse generator circuits, the plurality of pulse generator circuits electrically coupled in parallel, wherein the controller is configured to cause an input signal pulse to be transmitted to the driver circuit , and the driver circuit , upon receiving the input signal pulse, transmits a driving signal pulse to any selected one or more of the plurality of pulse generator circuits, and to cause the driving signal pulse to not be transmitted to any other unselected one or more circuits of the plurality of pulse generator circuits, and wherein each of the pulse generator circuits is configured to generate at least a portion of an output voltage pulse at the output terminal in response to the driving signal pulse being transmitted thereto, the other unselected one or more pulse generator circuits that do not receive the driving signal pulse do not generate any portion of the output voltage pulse.
A load handling controller for localizing a load handling vehicle and a load target , the load handling controller being arranged to: - obtain a spatial map describing a surrounding of the load handling vehicle; - receive first sensor signals from a first sensor system for generating point clouds of the surrounding of the load handling vehicle; - receive second sensor signals from a second sensor system for generating images of the surrounding of the load handling vehicle; and - localizing the load handling vehicle and the load target in the spatial map based on the first sensor signals and the second sensor signals; characterized in that the second sensor signals are synchronized in time with the first sensor signals and localizing the load target in the spatial map comprises: - identifying the load target based on one or more images of the surrounding of the load handling vehicle generated by the second sensor system to obtain an identified load target on an identification image; and - determining the position of the load target in the spatial map by projecting one or more second point clouds of the surrounding of the load handling vehicle obtained from the first sensor signals to the identification image, the one or more second point clouds being synchronized in time with respect to the one or more images. - obtain a spatial map describing a surrounding of the load handling vehicle; - receive first sensor signals from a first sensor system for generating point clouds of the surrounding of the load handling vehicle; - receive second sensor signals from a second sensor system for generating images of the surrounding of the load handling vehicle; and - localizing the load handling vehicle and the load target in the spatial map based on the first sensor signals and the second sensor signals; - identifying the load target based on one or more images of the surrounding of the load handling vehicle generated by the second sensor system to obtain an identified load target on an identification image; and - determining the position of the load target in the spatial map by projecting one or more second point clouds of the surrounding of the load handling vehicle obtained from the first sensor signals to the identification image, the one or more second point clouds being synchronized in time with respect to the one or more images.
A device for modifying delivery of a drug of a subcutaneous drug delivery device at a tissue region, comprising: an opening for directing the drug delivery device to enter the subcutaneous tissue at the tissue region; a treatment element adhered to the skin above the tissue region and configured to apply a treatment in a vicinity of the tissue region to modify a pharmacokinetic and/or pharmacodynamic profile of the drug, said treatment element comprising a tissue stimulator including at least one of a thermal stimulator, a mechanical stimulator; electrical stimulator and a chemical stimulator; and a controller configured to initiate application of the treatment by the treatment element. an opening for directing the drug delivery device to enter the subcutaneous tissue at the tissue region; a treatment element adhered to the skin above the tissue region and configured to apply a treatment in a vicinity of the tissue region to modify a pharmacokinetic and/or pharmacodynamic profile of the drug, said treatment element comprising a tissue stimulator including at least one of a thermal stimulator, a mechanical stimulator; electrical stimulator and a chemical stimulator; and a controller configured to initiate application of the treatment by the treatment element.
A depth detection device , comprising a stereo image recording device , a scaler , and a depth determiner , wherein the stereo image recording device is configured to record a stereo image of a scene, wherein the stereo image recording device comprises - a first optical path , configured to record a first image of the stereo image, and - a second optical path , configured to record a second image of the stereo image, wherein the first optical path and second optical path are of different length, wherein the scaler is configured to - determine a scaling of the first image or of the second image, by minimizing differing lateral magnification of objects in the scene depicted in the first image and the second image, and - perform the determined scaling, resulting in a scaled stereo image, wherein the depth determiner is configured to determine a depth map of the scene based upon the scaled stereo image, wherein the scaler is configured to determine a scaling factor M 0 opt as M 0 opt = 1 + Δ log z 1 z 2 z 2 − z 1 , wherein Δ is a difference in optical length of the first optical path and the second optical path , z 1 is a lower limit of a depth range of the scene, and z 2 is an upper limit of a depth range of the scene. wherein the stereo image recording device is configured to record a stereo image of a scene, wherein the stereo image recording device comprises - a first optical path , configured to record a first image of the stereo image, and - a second optical path , configured to record a second image of the stereo image, - a first optical path , configured to record a first image of the stereo image, and - a second optical path , configured to record a second image of the stereo image, wherein the first optical path and second optical path are of different length, wherein the scaler is configured to - determine a scaling of the first image or of the second image, by minimizing differing lateral magnification of objects in the scene depicted in the first image and the second image, and - perform the determined scaling, resulting in a scaled stereo image, - determine a scaling of the first image or of the second image, by minimizing differing lateral magnification of objects in the scene depicted in the first image and the second image, and - perform the determined scaling, resulting in a scaled stereo image, wherein the depth determiner is configured to determine a depth map of the scene based upon the scaled stereo image, wherein the scaler is configured to determine a scaling factor M 0 opt as M 0 opt = 1 + Δ log z 1 z 2 z 2 − z 1 , wherein Δ is a difference in optical length of the first optical path and the second optical path , z 1 is a lower limit of a depth range of the scene, and z 2 is an upper limit of a depth range of the scene.
An infusion pump with catch-up of interrupted delivery of an infusion, the infusion pump comprising: a processor ; a memory coupled to the processor , the memory containing programming code to: receive an updated drug library with a catch-up rate factor, receive a desired infusion rate from the user at the infusion pump ; calculate an expected accumulated infusion volume as a function of time from the desired infusion rate ; request delivery of the infusion at the desired infusion rate ; determine an actual accumulated infusion volume at a particular time; increase the desired infusion rate by the catch-up rate factor to generate a catch-up infusion rate when at the particular time the actual accumulated infusion volume is less than the expected accumulated infusion volume ; and request delivery of the infusion at the catch-up infusion rate. a processor ; a memory coupled to the processor , the memory containing programming code to: receive an updated drug library with a catch-up rate factor, receive a desired infusion rate from the user at the infusion pump ; calculate an expected accumulated infusion volume as a function of time from the desired infusion rate ; request delivery of the infusion at the desired infusion rate ; determine an actual accumulated infusion volume at a particular time; increase the desired infusion rate by the catch-up rate factor to generate a catch-up infusion rate when at the particular time the actual accumulated infusion volume is less than the expected accumulated infusion volume ; and request delivery of the infusion at the catch-up infusion rate. receive an updated drug library with a catch-up rate factor, receive a desired infusion rate from the user at the infusion pump ; calculate an expected accumulated infusion volume as a function of time from the desired infusion rate ; request delivery of the infusion at the desired infusion rate ; determine an actual accumulated infusion volume at a particular time; increase the desired infusion rate by the catch-up rate factor to generate a catch-up infusion rate when at the particular time the actual accumulated infusion volume is less than the expected accumulated infusion volume ; and request delivery of the infusion at the catch-up infusion rate.
Method for producing a molded part, comprising: a. providing a polymer composition containing 89 to 99 wt.% polyhydroxyalkanoate and 1 to 11 wt.% starch-containing polymer; b. homogenizing the polymer composition using thermal and/or mechanical energy; c. introducing the polymer composition into a mold; d. molding a molded part in the mold; and e. removing the molded part from the mold. a. providing a polymer composition containing 89 to 99 wt.% polyhydroxyalkanoate and 1 to 11 wt.% starch-containing polymer; b. homogenizing the polymer composition using thermal and/or mechanical energy; c. introducing the polymer composition into a mold; d. molding a molded part in the mold; and e. removing the molded part from the mold.
Hub for at least partially muscle-powered vehicles and in particular bicycles , comprising a hollow hub axle with a substantially cylindrical inner through hole for the passage of a clamping axle , a hub shell rotatably supported relative to the hub axle by at least two hub bearings , a rotor rotatably supported relative to the hub axle , and a freewheel device with a hub-side freewheel component and a rotor-side freewheel component , each comprising axial engagement components for engagement with one another, wherein the hub shell is rotatably supported relative to the hub axle in a rotor-side end region by a rotor-side hub bearing , and in an opposite end region of the hub shell , by at least one further hub bearing , wherein the hub axle substantially shows a cylindrical inner surface, and wherein the hub-side freewheel component is non-rotatably connected with the hub shell, and wherein the rotor-side freewheel component is non-rotatably connected with the rotor and is movable in the axial direction relative to the rotor and the hub shell at least between a freewheel position and an engagement position , wherein the rotor-side freewheel component is biased in the engagement position through at least one biasing device , and wherein the engagement components are each configured on the front face, wherein the rotor-side hub bearing is accommodated in an axially longitudinal section of the hub axle having a diameter that is enlarged compared to a central region of the hub axle, in a bearing seat of the hollow hub axle , and that the axially longitudinal section is shorter than 30 mm, and that the clear inner diameter of the hub axle varies over the length of the hub axle by less than 1.5 mm. wherein the hub shell is rotatably supported relative to the hub axle in a rotor-side end region by a rotor-side hub bearing , and in an opposite end region of the hub shell , by at least one further hub bearing , wherein the hub axle substantially shows a cylindrical inner surface, and wherein the hub-side freewheel component is non-rotatably connected with the hub shell, and wherein the rotor-side freewheel component is non-rotatably connected with the rotor and is movable in the axial direction relative to the rotor and the hub shell at least between a freewheel position and an engagement position , wherein the rotor-side freewheel component is biased in the engagement position through at least one biasing device , and wherein the engagement components are each configured on the front face, wherein the rotor-side hub bearing is accommodated in an axially longitudinal section of the hub axle having a diameter that is enlarged compared to a central region of the hub axle, in a bearing seat of the hollow hub axle , and that the axially longitudinal section is shorter than 30 mm, and that the clear inner diameter of the hub axle varies over the length of the hub axle by less than 1.5 mm.
An apparatus comprising: a processor; and a memory storing machine readable instructions that when executed by the processor cause the processor to: obtain attributes of a user interface for a digital signal processing plug-in; obtain attributes of digital signal processing logic for the digital signal processing plug-in; generate, based on the attributes of the user interface and the attributes of the digital signal processing logic, a plug-in process to control operation of the user interface and the digital signal processing logic; and establish, based on the generated plug-in process, and via inter-process communication, IPC, application programming interfaces, APIs, a two-way communication link between a host and the plug-in process to implement the digital signal processing plug-in by generating for the IPC APIs, a memory-mapped file, and utilizing the memory-mapped file attached to a lock-free producer-consumer queue to establish the two-way communication link. a processor; and a memory storing machine readable instructions that when executed by the processor cause the processor to: obtain attributes of a user interface for a digital signal processing plug-in; obtain attributes of digital signal processing logic for the digital signal processing plug-in; generate, based on the attributes of the user interface and the attributes of the digital signal processing logic, a plug-in process to control operation of the user interface and the digital signal processing logic; and establish, based on the generated plug-in process, and via inter-process communication, IPC, application programming interfaces, APIs, a two-way communication link between a host and the plug-in process to implement the digital signal processing plug-in by generating for the IPC APIs, a memory-mapped file, and utilizing the memory-mapped file attached to a lock-free producer-consumer queue to establish the two-way communication link. obtain attributes of a user interface for a digital signal processing plug-in; obtain attributes of digital signal processing logic for the digital signal processing plug-in; generate, based on the attributes of the user interface and the attributes of the digital signal processing logic, a plug-in process to control operation of the user interface and the digital signal processing logic; and establish, based on the generated plug-in process, and via inter-process communication, IPC, application programming interfaces, APIs, a two-way communication link between a host and the plug-in process to implement the digital signal processing plug-in by generating for the IPC APIs, a memory-mapped file, and utilizing the memory-mapped file attached to a lock-free producer-consumer queue to establish the two-way communication link.
An assembly configured to provide access to an interior volume of a breathing conduit , wherein the assembly comprises a piercing portion and a body portion , wherein the piercing portion is configured to pierce through a wall of the breathing conduit to make an opening there through, wherein the piercing portion is configured to be inserted through the opening , into the interior volume , in a first direction (d1), wherein the body portion is configured to extend through the opening when the piercing portion is inserted into the interior volume , wherein the body portion comprises a channel configured to provide fluid access to the interior volume , and wherein the assembly further comprises a sealing configured to seal an area between the opening and the body portion , characterised in that the piercing portion comprises an abutment surface configured to abut against an inner wall surface of the breathing conduit . wherein the piercing portion is configured to be inserted through the opening , into the interior volume , in a first direction (d1), wherein the body portion is configured to extend through the opening when the piercing portion is inserted into the interior volume , wherein the body portion comprises a channel configured to provide fluid access to the interior volume , and wherein the assembly further comprises a sealing configured to seal an area between the opening and the body portion , characterised in that the piercing portion comprises an abutment surface configured to abut against an inner wall surface of the breathing conduit .
A film comprising: a layer of water-soluble polymeric material; and a vapor-deposited organic coating disposed on a surface of the layer, wherein the organic coating comprises a poly(p-xylylene) polymer wherein the poly(p-xylylene) polymer comprises one or more of poly(p-xylylene) polymer, poly(dichloro-p-xylylene) polymer, α-perfluorodi-p-xylene polymer, and poly(tetrafluoro-p-xylylene) polymer or the poly(p-xylylene) polymer comprises poly(chloro-p-xylylene) polymer and wherein the film is water-dispersible. a layer of water-soluble polymeric material; and a vapor-deposited organic coating disposed on a surface of the layer, wherein the organic coating comprises a poly(p-xylylene) polymer wherein the poly(p-xylylene) polymer comprises one or more of poly(p-xylylene) polymer, poly(dichloro-p-xylylene) polymer, α-perfluorodi-p-xylene polymer, and poly(tetrafluoro-p-xylylene) polymer or the poly(p-xylylene) polymer comprises poly(chloro-p-xylylene) polymer and wherein the film is water-dispersible.
A method for invoking a system file during startup of a terminal device invoking its basic input/output system, "BIOS", comprising: detecting (S11), during a startup process, a trigger operation input by a user; characterized in that: establishing (S12) a link with a cloud server, in response to the detecting of the trigger operation being used to trigger an invocation to the system file; and invoking (S13) the system file by acquiring the system file from the cloud server, based on the link, wherein said invoking (S13) the system file comprises: uploading (S33), based on the link, a device identifier to the cloud server, the device identifier being used to identify a terminal device invoking the system file; and acquiring (S34) the system file determined by the cloud server based on the device identifier and matched with the device identifier. detecting (S11), during a startup process, a trigger operation input by a user; characterized in that: establishing (S12) a link with a cloud server, in response to the detecting of the trigger operation being used to trigger an invocation to the system file; and invoking (S13) the system file by acquiring the system file from the cloud server, based on the link, establishing (S12) a link with a cloud server, in response to the detecting of the trigger operation being used to trigger an invocation to the system file; and invoking (S13) the system file by acquiring the system file from the cloud server, based on the link, wherein said invoking (S13) the system file comprises: uploading (S33), based on the link, a device identifier to the cloud server, the device identifier being used to identify a terminal device invoking the system file; and acquiring (S34) the system file determined by the cloud server based on the device identifier and matched with the device identifier. uploading (S33), based on the link, a device identifier to the cloud server, the device identifier being used to identify a terminal device invoking the system file; and acquiring (S34) the system file determined by the cloud server based on the device identifier and matched with the device identifier.
A stability control system for a machine , the stability control system comprising: a gyroscope disposed on the machine , the gyroscope generating a yaw signal; and a controller in communication with the gyroscope and a user input that generates control signals for driving at least one plant of the machine , the controller configured to receive the yaw signal from the gyroscope and the control signals from the user input; wherein the controller is configured to alter the control signals provided to the at least one plant from the user input based at least in part on the yaw signal, characterized in that the controller maintains an accumulated yaw based on the yaw signal and alters the control signal to minimize the accumulated yaw . a gyroscope disposed on the machine , the gyroscope generating a yaw signal; and a controller in communication with the gyroscope and a user input that generates control signals for driving at least one plant of the machine , the controller configured to receive the yaw signal from the gyroscope and the control signals from the user input; wherein the controller is configured to alter the control signals provided to the at least one plant from the user input based at least in part on the yaw signal, characterized in that the controller maintains an accumulated yaw based on the yaw signal and alters the control signal to minimize the accumulated yaw .