mhurhangee/ep-ind-claims huggingface dataset:
Laundry care appliance with an outer tub for accommodating washing liquid, a turbidity sensor for detecting a turbidity of the washing liquid accommodated in the outer tub, wherein the turbidity sensor is arranged within a turbidity detection region that lies in the outer tub or in a line fluidically communicating with the outer tub, a fresh water supply element, which is fluidically connected to the turbidity detection region and is embodied to supply fresh water to the turbidity detection region, a drain line, which fluidically connects the turbidity detection region to a drain of the laundry care appliance, a pump, which is arranged in the drain line and is embodied to discharge pump washing liquid out of the turbidity detection region and out of the laundry care appliance through the drain line, and a controller, which is connected to the fresh water supply element, the turbidity sensor and the pump from a control perspective, wherein the controller is embodied to activate the pump in order to pump washing liquid out of the turbidity detection region and into the drain line, wherein the controller is embodied to activate the fresh water supply element, in order to supply fresh water to the turbidity detection region, wherein the controller is embodied, after the supply of the fresh water to the turbidity detection region, to store a turbidity of the washing liquid in the turbidity detection region detected by the turbidity sensor as a zero value for the turbidity sensor, in order to calibrate the turbidity sensor, characterised in that the laundry care appliance has a power detection element, which is embodied to detect an electrical power value of a pump drive of the pump, wherein the controller is embodied to deactivate the pump when an electrical power value detected by the power detection element exceeds a power threshold value, and the controller is embodied to terminate the supply of the fresh water when an electrical power value detected by the power detection element exceeds a power threshold value. wherein the controller is embodied to activate the fresh water supply element, in order to supply fresh water to the turbidity detection region, wherein the controller is embodied, after the supply of the fresh water to the turbidity detection region, to store a turbidity of the washing liquid in the turbidity detection region detected by the turbidity sensor as a zero value for the turbidity sensor, in order to calibrate the turbidity sensor, characterised in that the laundry care appliance has a power detection element, which is embodied to detect an electrical power value of a pump drive of the pump, wherein the controller is embodied to deactivate the pump when an electrical power value detected by the power detection element exceeds a power threshold value, and the controller is embodied to terminate the supply of the fresh water when an electrical power value detected by the power detection element exceeds a power threshold value.
A transmitting user equipment, comprising: means for including a short identifier in a scheduling assignment, the short identifier being a short version of a target identifier, and the target identifier uniquely identifying a receiving user equipment or group of receiving user equipments which are monitoring for a transmission including the target identifier; means for transmitting, to the receiving user equipment or group of receiving user equipments, the scheduling assignment comprising the short identifier; and means for transmitting, to the receiving user equipment or group of receiving user equipments, the target identifier as medium access control-level information. means for including a short identifier in a scheduling assignment, the short identifier being a short version of a target identifier, and the target identifier uniquely identifying a receiving user equipment or group of receiving user equipments which are monitoring for a transmission including the target identifier; means for transmitting, to the receiving user equipment or group of receiving user equipments, the scheduling assignment comprising the short identifier; and means for transmitting, to the receiving user equipment or group of receiving user equipments, the target identifier as medium access control-level information.
A Raman spectrum detection system, comprising: a light source for emitting excitation light that excites an object to be identified to emit Raman light; a light path system for irradiating light emitted from the light source on the object and collecting the Raman light emitted by the object; a light detection device for receiving the Raman light collected by the light path system and detecting said Raman light to obtain spectrum data thereof; a control device for controlling the light source to provide the excitation light, controlling the light detection device to detect the Raman light, receiving the spectrum data output from the light detection device, and analyzing said spectrum data to identify the object; and an automatic calibration device for automatically calibrating the Raman spectrum detection system, wherein the automatic calibration device comprises a standard sample, and the automatic calibration device is arranged at the light exit of the light path system such that the standard sample receives light from the light path system and the light path system collects the Raman light from the standard sample, wherein the automatic calibration device is configured such that the standard sample is pushed away by the object during the detection and is automatically restored to the light exit when the object is taken away. a light source for emitting excitation light that excites an object to be identified to emit Raman light; a light path system for irradiating light emitted from the light source on the object and collecting the Raman light emitted by the object; a light detection device for receiving the Raman light collected by the light path system and detecting said Raman light to obtain spectrum data thereof; a control device for controlling the light source to provide the excitation light, controlling the light detection device to detect the Raman light, receiving the spectrum data output from the light detection device, and analyzing said spectrum data to identify the object; and an automatic calibration device for automatically calibrating the Raman spectrum detection system, wherein the automatic calibration device comprises a standard sample, and the automatic calibration device is arranged at the light exit of the light path system such that the standard sample receives light from the light path system and the light path system collects the Raman light from the standard sample, wherein the automatic calibration device is configured such that the standard sample is pushed away by the object during the detection and is automatically restored to the light exit when the object is taken away.
A carrier for a microcircuit card, comprising a body formed in a mass of material in which at least one metal pad (46, 46A, 46B) is embedded, the pad (46, 46A, 46B) comprising a first part (48A, 48B) encapsulated in the mass and a second part (50A, 50B) able to be exposed, characterized in that the first part (48A, 48B) is anchored in the mass to block the rotation of the pad (46, 46A, 46B) around an axis substantially orthogonal to the carrier in at least one predefined rotation direction, the edge of the first part (48A, 48B) of the pad (46, 46A, 46B) being provided with a lateral extension able to abut inside the mass to block the rotation of the pad (46, 46A, 46B) in the predefined rotation direction.
A spiral-wound electrode assembly comprising: a first electrode comprising a first electrode active material, a leading edge and a trailing edge; a second electrode comprising a second electrode active material, a leading edge and a trailing edge; a separator disposed between the first electrode and the second electrode; the electrode assembly having an interfacial anode-to-cathode ratio of less than about 1.2; wherein the first electrode, the second electrode, and the separator are wound so that the first electrode forms a layer at the outermost radius of the electrode assembly and so that the trailing edge of the second electrode extends past the trailing edge of the first electrode, wherein the second electrode comprises at least one tab that is affixed to the second electrode, characterized in that the tab is positioned along the second electrode in a location extending past the trailing edge of the first electrode and inward of the second electrode. a first electrode comprising a first electrode active material, a leading edge and a trailing edge; a second electrode comprising a second electrode active material, a leading edge and a trailing edge; a separator disposed between the first electrode and the second electrode; the electrode assembly having an interfacial anode-to-cathode ratio of less than about 1.2; wherein the first electrode, the second electrode, and the separator are wound so that the first electrode forms a layer at the outermost radius of the electrode assembly and so that the trailing edge of the second electrode extends past the trailing edge of the first electrode, wherein the second electrode comprises at least one tab that is affixed to the second electrode, characterized in that the tab is positioned along the second electrode in a location extending past the trailing edge of the first electrode and inward of the second electrode.
An audio quality estimation method for a multimedia telecommunication service which transmits a mixture of an audio packet serving as an IP packet containing audio data, and an IP packet containing no audio data, characterized by comprising: an audio packet loss frequency calculation step of, when at least one audio packet to be assessed exists in singly or continuously generated IP packet losses, calculating an audio packet loss frequency (L a) based on information of received IP packets by counting the packet losses as an audio packet loss of one time regardless of a continuous length; an average influence time calculation step of calculating, based on information of received IP packets, an average influence time (t) serving as an average time during which audio quality is influenced by an audio packet loss of one time; and a subjective quality assessment value estimation step of estimating a subjective quality assessment value based on the audio packet loss frequency (L a) and the average influence time (t). an audio packet loss frequency calculation step of, when at least one audio packet to be assessed exists in singly or continuously generated IP packet losses, calculating an audio packet loss frequency (L a) based on information of received IP packets by counting the packet losses as an audio packet loss of one time regardless of a continuous length; an average influence time calculation step of calculating, based on information of received IP packets, an average influence time (t) serving as an average time during which audio quality is influenced by an audio packet loss of one time; and a subjective quality assessment value estimation step of estimating a subjective quality assessment value based on the audio packet loss frequency (L a) and the average influence time (t).
An electrode member, comprising an electrode body, wherein the electrode body comprises an insulating base and a conductive layer disposed on each of two opposite surfaces of the insulating base, the conductive layer has a first portion and a second portion extending from the first portion, the first portion is adapted to be coated with an active material and the second portion is uncoated with the active material, and a portion of the insulating base corresponding to the second portion is provided with a first through-hole throughout a thickness direction, characterized in that the electrode member further comprises a conductive structure, the conductive structure comprises a first conductive member and a second conductive member, the first conductive member is connected to the second portion located on a surface of the insulating base, and the second conductive member is connected to the second portion located on the other surface of the insulating base, wherein the first conductive member and the second conductive member are either directly connected or connected by a conductive connecting portion.
Dosing cartridge for a water supply circuit for proportionally releasing a soluble substance inside said circuit, comprising an external casing and a tubular inner body that is inserted in said external casing so as to form with a side wall thereof an external chamber adapted to contain an active material suitable to absorb and retain said soluble substance and then gradually release it when soaked in and/or in contact with water, said inner body comprising a longitudinal duct connecting a water inlet portion of said cartridge to a water outlet portion of said cartridge, said duct being provided at said inlet portion with an inlet opening for the water entering said external chamber and at said outlet portion with at least one outlet opening for the water and soluble substance exiting from said external chamber, wherein: - said outlet opening has a respective predefined passage section so that a secondary flow of said flow of water and soluble substance is proportional according to a defined ratio to a primary flow of a water main flow through said duct; - said external chamber comprises a filling opening for entering into said external chamber said soluble substance used to soak in and/or impregnate said active material; characterized in that: - a check valve is fixed to said inlet opening for enabling a unidirectional water flow towards the inside of the external chamber. - said outlet opening has a respective predefined passage section so that a secondary flow of said flow of water and soluble substance is proportional according to a defined ratio to a primary flow of a water main flow through said duct; - said external chamber comprises a filling opening for entering into said external chamber said soluble substance used to soak in and/or impregnate said active material; - a check valve is fixed to said inlet opening for enabling a unidirectional water flow towards the inside of the external chamber.
Timepiece comprising: - a mechanical power source coupled to a time indicating display, - a generator, wherein the mechanical power source is coupled to the generator, - a regulator circuit configured for enslaving a generator frequency of the generator to a reference frequency, wherein the regulator circuit is configured for electrically braking the generator when the generator frequency is higher than the reference frequency, wherein the regulator circuit comprises: - at least a first switch, at least a first inductor and at least a first capacitor, each having a first end connected to a same node, wherein the first inductor is connected, at its second end, in series with the generator, and - a first diode arrangement arranged between said node and the first capacitor and wherein the first diode arrangement enables a current flowing from the first inductor to the first capacitor and wherein the first diode arrangement is configured to prevent a current flowing from the first capacitor to the first inductor. - a mechanical power source coupled to a time indicating display, - a generator, wherein the mechanical power source is coupled to the generator, - a regulator circuit configured for enslaving a generator frequency of the generator to a reference frequency, wherein the regulator circuit is configured for electrically braking the generator when the generator frequency is higher than the reference frequency, - at least a first switch, at least a first inductor and at least a first capacitor, each having a first end connected to a same node, wherein the first inductor is connected, at its second end, in series with the generator, and - a first diode arrangement arranged between said node and the first capacitor and wherein the first diode arrangement enables a current flowing from the first inductor to the first capacitor and wherein the first diode arrangement is configured to prevent a current flowing from the first capacitor to the first inductor.
A badminton racket comprising: a frame extending in an annular shape; a grip; and a shaft which extends and connects the grip and the frame to each other wherein the shaft is formed to have a hollow region (23, 24) at each of opposite sides in the extending direction in a shaft body except for the coupling portion, wherein a region other than the hollow regions (23, 24) is provided with a filling material to form a solid region in a cylindrical member of the shaft, and wherein the solid region is formed in a region which includes a kick point in deflection of the shaft body. a frame extending in an annular shape; a grip; and a shaft which extends and connects the grip and the frame to each other wherein the shaft is formed to have a hollow region (23, 24) at each of opposite sides in the extending direction in a shaft body except for the coupling portion, wherein a region other than the hollow regions (23, 24) is provided with a filling material to form a solid region in a cylindrical member of the shaft, and wherein the solid region is formed in a region which includes a kick point in deflection of the shaft body.
A track chain assembly (17, 77, 277) comprising: a track pin (190, 290) defining a longitudinal axis; a first link (35, 90, 91, 281), the first link (35, 90, 91, 281) defining a first pair of pin passages (150, 152; 291, 292) in spaced relationship to each other by a first link pitch (45, 95, 295), the first link (35, 90, 91, 281) mounted to the track pin (190, 290) such that the track pin (190, 290) extends through one of the first pair of pin passages (150, 152; 291, 292); and a second link (30, 100, 200, 287), the second link (30, 100, 200, 287) defining a second pair of pin passages (180, 182; 297, 298) in spaced relationship to each other by a second link pitch (40, 105, 300), the second link (30, 100, 200, 287) mounted to the track pin (190, 290) such that the track pin (190, 290) extends through one of the second pair of pin passages (180, 182; 297, 298) and such that the first link (35, 90, 91, 281) and the second link (30, 100, 200, 287) are rotatable with respect to each other about the longitudinal axis of the track pin (190, 290), wherein the second link pitch (40, 105, 300) is greater than the first link pitch (45, 95, 295) in a range up to twice the first link pitch (45, 95, 295), characterised in that the second link pitch (40, 105, 300) is equal to one and one half of the first link pitch (45, 95, 295), or the second link pitch (40, 105, 300) is equal to twice the first link pitch (45, 95, 295). a track pin (190, 290) defining a longitudinal axis; a first link (35, 90, 91, 281), the first link (35, 90, 91, 281) defining a first pair of pin passages (150, 152; 291, 292) in spaced relationship to each other by a first link pitch (45, 95, 295), the first link (35, 90, 91, 281) mounted to the track pin (190, 290) such that the track pin (190, 290) extends through one of the first pair of pin passages (150, 152; 291, 292); and
A medical article comprising a polymeric region that comprises a biodegradable block copolymer comprising a first biodegradable polymer block and a second biodegradable polymer block that differs from the first biodegradable polymer block, said polymeric region comprising a first phase domain formed from said first polymer block and a second phase domain formed from said second polymer block, wherein at least one of the first and second phase domains is a discontinuous phase domain in the form of dispersed phase elements, substantially all of which have a length that is less than 1 micron, and wherein said first biodegradable polymer block is a low Tg polymer block and said second biodegradable polymer block is a high Tg polymer block.
An identification chip holding apparatus, wherein the identification chip holding apparatus comprises: a chip accommodating structure, configured to accommodate a chip that identifies an optical fiber connector, and implement an electrical connection between the chip and an external device; and a snap-on structure, configured to be accreted into the optical fiber connector; wherein the snap-on structure has a fold-up structure; wherein the snap-on structure has a snap-fit convex part, configured to fit into a slot on the fold-up structure; wherein the fold-up structure further has a rear-positioning structure, configured to come in contact with a handshake slope of the optical fiber connector, so as to fasten the identification chip holding apparatus. a chip accommodating structure, configured to accommodate a chip that identifies an optical fiber connector, and implement an electrical connection between the chip and an external device; and a snap-on structure, configured to be accreted into the optical fiber connector; wherein the snap-on structure has a fold-up structure; wherein the snap-on structure has a snap-fit convex part, configured to fit into a slot on the fold-up structure; wherein the fold-up structure further has a rear-positioning structure, configured to come in contact with a handshake slope of the optical fiber connector, so as to fasten the identification chip holding apparatus.
A method of forming a microprojection array, comprising: dispensing a quantity of a formulation on a mold having a plurality of cavities for individual microprojections in the array, wherein the mold and the formulation are contacted such that the plurality of cavities are in fluid communication with the formulation; covering the formulation on the mold with a substrate; transferring the formulation into the plurality of cavities; and removing excess formulation from the mold in a manner that retains formulation in each of the plurality of cavities to form the microprojection array. dispensing a quantity of a formulation on a mold having a plurality of cavities for individual microprojections in the array, wherein the mold and the formulation are contacted such that the plurality of cavities are in fluid communication with the formulation; covering the formulation on the mold with a substrate; transferring the formulation into the plurality of cavities; and removing excess formulation from the mold in a manner that retains formulation in each of the plurality of cavities to form the microprojection array.