mhurhangee/ep-ind-claims huggingface dataset:
A data transmission method, applied to a personal area network, wherein the personal area network comprises a first wearable device, a second wearable device, and a mobile terminal, and the method characterised by: detecting, by the mobile terminal, that service data sent by the first wearable device to the mobile terminal is service data to be forwarded by the mobile terminal; sending, by the mobile terminal, a notification message to the first wearable device, wherein the notification message comprises a device identity and address information of the second wearable device and is used to notify the first wearable device that a final receiver of the service data is the second wearable device; receiving, by the mobile terminal, disconnection request information sent by the first wearable device, wherein the disconnection request message is used to request the mobile terminal to break a connection to the first wearable device; and breaking, by the mobile terminal, the connection to the first wearable device in response to the disconnection request message. detecting, by the mobile terminal, that service data sent by the first wearable device to the mobile terminal is service data to be forwarded by the mobile terminal; sending, by the mobile terminal, a notification message to the first wearable device, wherein the notification message comprises a device identity and address information of the second wearable device and is used to notify the first wearable device that a final receiver of the service data is the second wearable device; receiving, by the mobile terminal, disconnection request information sent by the first wearable device, wherein the disconnection request message is used to request the mobile terminal to break a connection to the first wearable device; and breaking, by the mobile terminal, the connection to the first wearable device in response to the disconnection request message.
An aqueous germicidal use solution composition, having a pH of 1 to 5, comprising: between 0.05% to 5% by weight of formic acid; between 0.05% to 5% by weight of lactic acid; between 0 and 5% by weight of one or more non-ionic surfactants; and between 0.1% to 5% by weight of two or more anionic surfactants, comprising α-olefin sulfonate and an alkyl sulfate. between 0.05% to 5% by weight of formic acid; between 0.05% to 5% by weight of lactic acid; between 0 and 5% by weight of one or more non-ionic surfactants; and between 0.1% to 5% by weight of two or more anionic surfactants, comprising α-olefin sulfonate and an alkyl sulfate.
An interference control method, performed by a base station, comprising: determining an interfering cell, and obtaining a Physical Cell Indicator, PCI, and the number of antenna ports of the interfering cell; User Equipment, sending an interference control message to a User Equipment, UE, wherein the interference control message comprises the PCI and the number of antenna ports of the interfering cell, so that the UE obtains a Cell Reference Signaling, CRS, location of the interfering cell according to the PCI and the number of antenna ports of the interfering cell; and performing interference control according to information of the CRS location; wherein the determining an interfering cell comprises: receiving a measurement report sent by the user equipment UE, wherein the measurement report comprises a Reference Signal Receiving Power, RSRP, value of a serving cell and an RSRP value of a neighboring cell, and determining at least one neighboring cell whose RSRP value is larger than the RSRP value of the serving cell as the interfering cell; or, determining at least one neighboring cell as the interfering cell through an invading and victim relationship between cells that is configured by an Operation, Administration and Maintenance, OAM, entity; or, determining, through that Relative Narrowband TX Power, RNTP, obtained from a load indication exceeds a threshold, at least one neighboring cell having downlink interference to a UE of the serving cell as the interfering cell. determining an interfering cell, and obtaining a Physical Cell Indicator, PCI, and the number of antenna ports of the interfering cell; User Equipment, sending an interference control message to a User Equipment, UE, wherein the interference control message comprises the PCI and the number of antenna ports of the interfering cell, so that the UE obtains a Cell Reference Signaling, CRS, location of the interfering cell according to the PCI and the number of antenna ports of the interfering cell; and performing interference control according to information of the CRS location; receiving a measurement report sent by the user equipment UE, wherein the measurement report comprises a Reference Signal Receiving Power, RSRP, value of a serving cell and an RSRP value of a neighboring cell, and determining at least one neighboring cell whose RSRP value is larger than the RSRP value of the serving cell as the interfering cell; or, determining at least one neighboring cell as the interfering cell through an invading and victim relationship between cells that is configured by an Operation, Administration and Maintenance, OAM, entity; or, determining, through that Relative Narrowband TX Power, RNTP, obtained from a load indication exceeds a threshold, at least one neighboring cell having downlink interference to a UE of the serving cell as the interfering cell.
A system comprising: a controller configured to receive a first signal representative of a load on an engine and to generate a control parameter based on the first signal; one or more harmonic scaling elements, each configured to receive the control parameter and one engine harmonic signal of a plurality of engine harmonic signals and to generate a scaled version of the received engine harmonic signal, each harmonic scaling element including a harmonic specific mapping element for mapping the control parameter to a harmonic specific scaling factor, wherein at least some of the harmonic specific scaling factor values of the harmonic specific mapping element are mapped to control parameter values which are associated with a negative load on the engine; and an adjustable gain element for forming a scaled version of the received engine harmonic signal including applying the harmonic specific scaling factor to the received engine harmonic signal, characterised in that the controller is further configured to apply a scale factor to the first signal such that values of the first signal which are greater than a first threshold map to a linear range. a controller configured to receive a first signal representative of a load on an engine and to generate a control parameter based on the first signal; one or more harmonic scaling elements, each configured to receive the control parameter and one engine harmonic signal of a plurality of engine harmonic signals and to generate a scaled version of the received engine harmonic signal, each harmonic scaling element including a harmonic specific mapping element for mapping the control parameter to a harmonic specific scaling factor, wherein at least some of the harmonic specific scaling factor values of the harmonic specific mapping element are mapped to control parameter values which are associated with a negative load on the engine; and an adjustable gain element for forming a scaled version of the received engine harmonic signal including applying the harmonic specific scaling factor to the received engine harmonic signal, characterised in that the controller is further configured to apply a scale factor to the first signal such that values of the first signal which are greater than a first threshold map to a linear range. a harmonic specific mapping element for mapping the control parameter to a harmonic specific scaling factor, wherein at least some of the harmonic specific scaling factor values of the harmonic specific mapping element are mapped to control parameter values which are associated with a negative load on the engine; and an adjustable gain element for forming a scaled version of the received engine harmonic signal including applying the harmonic specific scaling factor to the received engine harmonic signal, characterised in that the controller is further configured to apply a scale factor to the first signal such that values of the first signal which are greater than a first threshold map to a linear range.
An optical fiber state detection system comprising: a first light source that outputs a monitor-related light for monitoring a state of an optical fiber; a reflection mechanism that reflects the monitor-related light propagated through the optical fiber; a light receiving part that receives a reflected light reflected by the reflection mechanism; a tap coupler provided between the reflection mechanism and both the first light source and the light receiving part such that the first light source and the light receiving part are connected the tap coupler; a second light source that outputs an ablation-related light; a wave multiplexer that multiplexes the monitor-related light and the ablation-related light; and a control part, wherein the first light source and the second light source are connected to the wave multiplexer, the wave multiplexer and the light receiving part are connected to the tap coupler, the monitor-related light and the ablation-related light are different from each other in wavelength, the reflection mechanism transmits the ablation-related light, when the control part detects that a received optical power of the reflected light is greater than 0 and lower than a predetermined threshold value, the control part shuts down the second light source, and the monitor-related light and the ablation-related light are same as each other in beam shape. a first light source that outputs a monitor-related light for monitoring a state of an optical fiber; a reflection mechanism that reflects the monitor-related light propagated through the optical fiber; a light receiving part that receives a reflected light reflected by the reflection mechanism; a tap coupler provided between the reflection mechanism and both the first light source and the light receiving part such that the first light source and the light receiving part are connected the tap coupler; a second light source that outputs an ablation-related light; a wave multiplexer that multiplexes the monitor-related light and the ablation-related light; and a control part, wherein the first light source and the second light source are connected to the wave multiplexer, the wave multiplexer and the light receiving part are connected to the tap coupler, the monitor-related light and the ablation-related light are different from each other in wavelength, the reflection mechanism transmits the ablation-related light, when the control part detects that a received optical power of the reflected light is greater than 0 and lower than a predetermined threshold value, the control part shuts down the second light source, and the monitor-related light and the ablation-related light are same as each other in beam shape.
An audio playback method for a virtual machine of a computing system, the method comprising: instantiating, via a host operating system of the computing system, a virtual machine; allocating a shared memory space for shared access by both the virtual machine and the host operating system; sending, to the virtual machine, an audio hardware clock signal; receiving, at the shared memory space, an audio data stream from the virtual machine, wherein the virtual machine is configured to send the audio data stream to the shared memory space in synchronicity with the audio hardware clock signal; and rendering, from the shared memory space, the audio data stream based on a global audio policy of the host operating system, wherein the global audio policy determines how each audio data stream is rendered by an audio engine and wherein the global audio policy is applied to all audio data streams regardless of whether the audio data streams are received from guest applications running in virtual machines or from host applications running outside of virtual machines. instantiating, via a host operating system of the computing system, a virtual machine; allocating a shared memory space for shared access by both the virtual machine and the host operating system; sending, to the virtual machine, an audio hardware clock signal; receiving, at the shared memory space, an audio data stream from the virtual machine, wherein the virtual machine is configured to send the audio data stream to the shared memory space in synchronicity with the audio hardware clock signal; and rendering, from the shared memory space, the audio data stream based on a global audio policy of the host operating system, wherein the global audio policy determines how each audio data stream is rendered by an audio engine and wherein the global audio policy is applied to all audio data streams regardless of whether the audio data streams are received from guest applications running in virtual machines or from host applications running outside of virtual machines.
A device, comprising: - a detection chamber configured to receive a sample comprising multiple labelled particles, - an actuator configured to displace some of the multiple labelled particles from the detection chamber so that only a first proper subset of the multiple labelled particles remains, - a detector configured to detect labelled particles of the first subset of labelled particles, and - a processor configured to determine, based on the detected labelled particles, the number of labelled particles of the first proper subset of labelled particles, wherein the device is configured to operate the actuator to (a) reintroduce at least some of the displaced multiple labelled particles to the detection chamber and, subsequently, (b) displace some of the multiple labelled particles from the detection chamber so that only a second proper subset of the multiple labelled particles remains and the processor is configured to operate the detector to detect labelled particles of the second proper subset and determine, based on the detected labelled particles, the number of labelled particles of the second proper subset of labelled particles, wherein the processor is further configured to determine the number or abundance of labelled particles in the sample based on a mean value of the number of labelled particles of the first and second proper subsets. - a detection chamber configured to receive a sample comprising multiple labelled particles, - an actuator configured to displace some of the multiple labelled particles from the detection chamber so that only a first proper subset of the multiple labelled particles remains, - a detector configured to detect labelled particles of the first subset of labelled particles, and - a processor configured to determine, based on the detected labelled particles, the number of labelled particles of the first proper subset of labelled particles,
Composite brake disk for a vehicle disk brake, comprising a brake disk pot formed from a first material, and a friction ring, which is formed from a different material and is connected to the brake disk pot, wherein the brake disk pot has a pot base extending in the radial direction with respect to an axis of rotation, and a circular-cylindrical pot shell extending from the pot base concentrically with respect to the axis of rotation, wherein the friction ring has at least two friction surfaces (6, 6') oriented in the radial direction with respect to the axis of rotation, and a circular-cylindrical collar pre-stretched axially in the direction of the brake disk pot concentrically with respect to the axis of rotation, wherein the pot shell and the collar overlap in some regions in the radial direction in a connecting region and are penetrated by a plurality of connecting elements (9, 9', 9",...) oriented substantially orthogonally with respect to the axis of rotation, and the collar engages radially on the outside around the pot shell in the connecting region, characterized in that the brake disk pot in a transition region between the pot base and the pot shell has a solid, encircling shoulder which is pre-stretched radially outward and is significantly stronger in the radial and axial directions than a base thickness of the pot base, in particular is at least twice the base thickness.
An electrochemical cell comprising: an ionically conductive medium comprising a hydrophobic low temperature ionic liquid comprising positive ions and negative ions and at least one hygroscopic additive selected from the group consisting of ZnCl 2, Zn(BF 4) 2, Zn(acetate) 2, and Zn(TFSI) 2; a fuel electrode for oxidizing a fuel; and an air electrode for absorbing and reducing gaseous oxygen, an ionically conductive medium comprising a hydrophobic low temperature ionic liquid comprising positive ions and negative ions and at least one hygroscopic additive selected from the group consisting of ZnCl 2, Zn(BF 4) 2, Zn(acetate) 2, and Zn(TFSI) 2; a fuel electrode for oxidizing a fuel; and an air electrode for absorbing and reducing gaseous oxygen,
A motor drive converter comprising: a cold plate having a first side and a second side, the first side being opposite to the second side; at least one motor phase power electronics disposed on the first side of the cold plate, wherein the at least one motor phase power electronics include at least one phase card circuit board thermally coupled to the cold plate; and a capacitor array disposed on the second side of the cold plate; wherein the cold plate comprises slots therethrough for a conductor to pass through the cold plate, the conductor configured to electrically couple the capacitor array and the at least one motor phase power electronics; and a plurality of bus bars electrically coupled to the at least one phase card circuit board characterized in that each of the plurality of bus bars is electrically coupled to the at least one phase card circuit board with flexible bus bar channels configured to provide compliance movement between the plurality of bus bars and the at least one phase card circuit board. a cold plate having a first side and a second side, the first side being opposite to the second side; at least one motor phase power electronics disposed on the first side of the cold plate, wherein the at least one motor phase power electronics include at least one phase card circuit board thermally coupled to the cold plate; and a capacitor array disposed on the second side of the cold plate; wherein the cold plate comprises slots therethrough for a conductor to pass through the cold plate, the conductor configured to electrically couple the capacitor array and the at least one motor phase power electronics; and a plurality of bus bars electrically coupled to the at least one phase card circuit board characterized in that each of the plurality of bus bars is electrically coupled to the at least one phase card circuit board with flexible bus bar channels configured to provide compliance movement between the plurality of bus bars and the at least one phase card circuit board.
A household appliance comprising a front wall, - an opening that is disposed on the front wall and enables the items to be placed therein, - a cover closing the opening, - a tenon disposed on the cover and - a lock that is disposed on the front wall and that has - a body that remains at the rear side of the front wall, - a latch that is pivotally connected to the body, which the tenon rotates by pushing while being placed into the body, that enables the tenon to be kept inside the body and that has a locking position wherein the tenon is kept inside the body and a free position whereto it is changed by rotating as the tenon is dislodged, - a spring, one end of which is connected to the body, one end to the latch, that is compressed by the rotation of the latch and that enables the latch to resume its former position by transferring the stored energy to the latch when the latch becomes free, the lock having - at least one bearing situated on the body, and - at least one pin that is disposed on the latch and that enables the latch to be pivotally connected into the bearing, characterized in that the lock further comprises a stopper that is disposed on the pin, that extends outside from the periphery of the pin in the radial direction and that enables the latch to stop in the locking position and/or the free position and to remain in the locking position and/or the free position by bearing against the wall of the bearing. - an opening that is disposed on the front wall and enables the items to be placed therein, - a cover closing the opening, - a tenon disposed on the cover and - a lock that is disposed on the front wall and that has - a body that remains at the rear side of the front wall, - a latch that is pivotally connected to the body, which the tenon rotates by pushing while being placed into the body, that enables the tenon to be kept inside the body and that has a locking position wherein the tenon is kept inside the body and a free position whereto it is changed by rotating as the tenon is dislodged, - a spring, one end of which is connected to the body, one end to the latch, that is compressed by the rotation of the latch and that enables the latch to resume its former position by transferring the stored energy to the latch when the latch becomes free, the lock having - at least one bearing situated on the body, and - at least one pin that is disposed on the latch and that enables the latch to be pivotally connected into the bearing, characterized in that the lock further comprises a stopper that is disposed on the pin, that extends outside from the periphery of the pin in the radial direction and that enables the latch to stop in the locking position and/or the free position and to remain in the locking position and/or the free position by bearing against the wall of the bearing.