mhurhangee/ep-ind-claims huggingface dataset:
A power consumption control method for a wearable device, wherein the method comprises: establishing a short range communications connection with a terminal and turning off a modem of the wearable device simultaneously;receiving (Sioi), by a receiver of the wearable device when the modem of the wearable device is in an off state, remote wireless communication service information transmitted by the terminal in a manner of the short range communications connection, wherein the remote wireless communication service information comprises a prompt message of a remote wireless communication service, and the prompt message of the remote wireless communication service is used to prompt a user to determine whether to turn on the modem; and receiving, by the receiver of the wearable device when the modem of the wearable device is in an on state, content, sent by a network device, of the remote wireless communication service. establishing a short range communications connection with a terminal and turning off a modem of the wearable device simultaneously;receiving (Sioi), by a receiver of the wearable device when the modem of the wearable device is in an off state, remote wireless communication service information transmitted by the terminal in a manner of the short range communications connection, wherein the remote wireless communication service information comprises a prompt message of a remote wireless communication service, and the prompt message of the remote wireless communication service is used to prompt a user to determine whether to turn on the modem; and receiving, by the receiver of the wearable device when the modem of the wearable device is in an on state, content, sent by a network device, of the remote wireless communication service.
A microelectromechanical device comprising a device layer which defines a horizontal device plane, and - a mobile rotor (11, 21, 31, 41, 51, 61) which comprises a first rotor measurement region (111, 211, 311, 411, 511, 611) made of silicon and a rotor stopper region (112, 212, 312, 412, 512, 612) made of silicon, - a fixed stator (12, 22, 32, 55) which is adjacent to the rotor and comprises a first stator measurement region and a stator stopper region, wherein the rotor is suspended from a fixed structure with flexible springs, and the rotor stopper region is separated from the stator stopper region by a stopper gap, and the rotor also comprises a first rotor isolation region (119, 219, 319, 4191 - 4195, 519, 619) made of an insulating material which connects the first rotor measurement region (111, 211, 311, 411, 511, 611) mechanically to the rotor stopper region (112, 212, 312, 412, 512, 612) and isolates the first rotor measurement region (111, 211, 311, 411, 511, 611) electrically from the rotor stopper region (112, 212, 312, 412, 512, 612), and the rotor is a mobile part in the device layer characterized in that the first rotor isolation region extends entirely through the rotor in a vertical direction which is perpendicular to the device plane, and the microelectromechanical device is an accelerometer or a gyroscope. - a mobile rotor (11, 21, 31, 41, 51, 61) which comprises a first rotor measurement region (111, 211, 311, 411, 511, 611) made of silicon and a rotor stopper region (112, 212, 312, 412, 512, 612) made of silicon, - a fixed stator (12, 22, 32, 55) which is adjacent to the rotor and comprises a first stator measurement region and a stator stopper region, wherein the rotor is suspended from a fixed structure with flexible springs, and the rotor stopper region is separated from the stator stopper region by a stopper gap, and the rotor also comprises a first rotor isolation region (119, 219, 319, 4191 - 4195, 519, 619) made of an insulating material which connects the first rotor measurement region (111, 211, 311, 411, 511, 611) mechanically to the rotor stopper region (112, 212, 312, 412, 512, 612) and isolates the first rotor measurement region (111, 211, 311, 411, 511, 611) electrically from the rotor stopper region (112, 212, 312, 412, 512, 612), and the rotor is a mobile part in the device layer characterized in that the first rotor isolation region extends entirely through the rotor in a vertical direction which is perpendicular to the device plane, and the microelectromechanical device is an accelerometer or a gyroscope.
Method for operating a sensor evaluation unit for the evaluation of measuring signals delivered by a sensor, in particular of measuring signals delivered by a lambda probe of an internal combustion engine, wherein the sensor evaluation unit comprises at least one first measuring current source (230, 235) and an electrical balancing resistor for balancing manufacturing tolerances of the sensor that influence the measuring signals, wherein the balancing resistor is supplied with a measuring current by means of which the electrical voltage (210, 215) dropping across the balancing resistor is limited to a maximum value, characterized in that the sensor evaluation unit does not have a measuring resistor.
A telecommunications network comprising a link connecting a head end to a remote optical network node capable of being powered, the head end comprising an OLT and/or network management components, wherein an optical transmitter is located at the head end and wherein the remote optical network node comprises: - a transceiver; characterised in that the remote optical network node further comprises: - a reflector arranged to reflect an optical signal received from the optical transmitter, back to the optical transmitter over the link, and - a switch arranged to direct the optical signal to the transceiver or to the reflector in dependence on whether the optical network node is powered. - a transceiver; characterised in that the remote optical network node further comprises: - a reflector arranged to reflect an optical signal received from the optical transmitter, back to the optical transmitter over the link, and - a switch arranged to direct the optical signal to the transceiver or to the reflector in dependence on whether the optical network node is powered.
An inner handle for an automobile, comprising: a base, a handle, rotatably connected with the base, a reset assembly, located between the handle and the base, and a driving assembly, connected with the handle, comprising: an electronic module and a mechanical module, wherein the electronic module comprises a switch, a motor and a first driving component, the switch being connected with a control circuit of the motor, the first driving component being configured to trigger the switch during a rotation of the handle, and the mechanical module comprises a second driving component and a pulling wire, the second driving component configured to pull the pulling wire during the rotation of the handle, characterised in that the first driving component comprises a protrusion and a notch, the switch comprises a contacting point, when the handle is in a non-rotating state, the contacting point is located in the notch, and there is a gap between the first driving component and the contacting point, when the handle rotates at a certain angle, the protrusion is in contact with the contacting point of the switch to trigger the switch. a base, a handle, rotatably connected with the base, a reset assembly, located between the handle and the base, and a driving assembly, connected with the handle, comprising: an electronic module and a mechanical module, wherein the electronic module comprises a switch, a motor and a first driving component, the switch being connected with a control circuit of the motor, the first driving component being configured to trigger the switch during a rotation of the handle, and the mechanical module comprises a second driving component and a pulling wire, the second driving component configured to pull the pulling wire during the rotation of the handle, characterised in that the first driving component comprises a protrusion and a notch, the switch comprises a contacting point, when the handle is in a non-rotating state, the contacting point is located in the notch, and there is a gap between the first driving component and the contacting point, an electronic module and a mechanical module, wherein the electronic module comprises a switch, a motor and a first driving component, the switch being connected with a control circuit of the motor, the first driving component being configured to trigger the switch during a rotation of the handle, and the mechanical module comprises a second driving component and a pulling wire, the second driving component configured to pull the pulling wire during the rotation of the handle, characterised in that the first driving component comprises a protrusion and a notch, the switch comprises a contacting point, when the handle is in a non-rotating state, the contacting point is located in the notch, and there is a gap between the first driving component and the contacting point, when the handle rotates at a certain angle, the protrusion is in contact with the contacting point of the switch to trigger the switch.
A structure comprising: a base that is made of a metal, and has a flat portion and at least one of a bump and an edge portion on a surface; and a surface coat layer that covers the surface of the base, the surface coat layer including: a first surface coat layer that covers the flat portion, and comprises an amorphous inorganic material, or a crystalline inorganic material and an amorphous inorganic material in combination; and a second surface coat layer that covers the at least one of a bump and an edge portion, and comprises the crystalline inorganic material and the amorphous inorganic material, the second surface coat layer comprising a higher percentage by weight of the crystalline inorganic material than does the first surface coat layer, wherein the first surface coat layer is free from the crystalline inorganic material, or comprises the crystalline inorganic material in an amount of 0.1 to 5% by weight, and the second surface coat layer comprises the crystalline inorganic material in an amount of 5 to 70% by weight, wherein the bump is formed by at least one of a weld bead and a weld spatter. a base that is made of a metal, and has a flat portion and at least one of a bump and an edge portion on a surface; and a surface coat layer that covers the surface of the base, the surface coat layer including: a first surface coat layer that covers the flat portion, and comprises an amorphous inorganic material, or a crystalline inorganic material and an amorphous inorganic material in combination; and a second surface coat layer that covers the at least one of a bump and an edge portion, and comprises the crystalline inorganic material and the amorphous inorganic material, the second surface coat layer comprising a higher percentage by weight of the crystalline inorganic material than does the first surface coat layer, wherein the first surface coat layer is free from the crystalline inorganic material, or comprises the crystalline inorganic material in an amount of 0.1 to 5% by weight, and the second surface coat layer comprises the crystalline inorganic material in an amount of 5 to 70% by weight, wherein the bump is formed by at least one of a weld bead and a weld spatter.
A nozzle assembly for a fluid application device for applying a fluid to a strand of material in a non-linear manner, the nozzle assembly comprising: a first conduit configured to receive a first fluid; a second conduit configured to receive a second fluid; an orifice configured to discharge the first fluid for application onto the strand of material; and a guide slot extending from the orifice, the guide slot configured to receive the strand of material, characterized by an application conduit including a receptacle, a first branch and a second branch, wherein the receptacle is fluidically connected with the first conduit and is configured to receive the first fluid, and the first branch and the second branch are fluidically connected between the second conduit and the receptacle and are configured to receive the second fluid; the orifice being fluidically connected to the application conduit, the second fluid being alternately discharged from the outlets adjacent to each orifice to cause the first fluid to fluctuate during application to the strand. a first conduit configured to receive a first fluid; a second conduit configured to receive a second fluid; an orifice configured to discharge the first fluid for application onto the strand of material; and a guide slot extending from the orifice, the guide slot configured to receive the strand of material, characterized by an application conduit including a receptacle, a first branch and a second branch, wherein the receptacle is fluidically connected with the first conduit and is configured to receive the first fluid, and the first branch and the second branch are fluidically connected between the second conduit and the receptacle and are configured to receive the second fluid; the orifice being fluidically connected to the application conduit, the second fluid being alternately discharged from the outlets adjacent to each orifice to cause the first fluid to fluctuate during application to the strand.
A method (100, 200) for wireless detonator blasting, comprising: using a wireless enabled bridge unit coupled with a blasting machine via a communications cable, wirelessly receiving a wireless fire command message from a master controller; using the bridge unit, sending a first fire command message to the blasting machine via the communications cable; the method being characterized by: using the bridge unit, selectively sending a second fire command message to the blasting machine via the communications cable in response to receiving a fire command acknowledgment message from the blasting machine via the communications cable. using a wireless enabled bridge unit coupled with a blasting machine via a communications cable, wirelessly receiving a wireless fire command message from a master controller; using the bridge unit, sending a first fire command message to the blasting machine via the communications cable; the method being characterized by: using the bridge unit, selectively sending a second fire command message to the blasting machine via the communications cable in response to receiving a fire command acknowledgment message from the blasting machine via the communications cable.
A passenger protection apparatus in which a seat belt is wound up by a single winding device, and in which an airbag (20; 50) configured to be inflatable in response to a predetermined actuating signal is provided at a position of a shoulder belt of the seat belt by being folded like a belt, the passenger protection apparatus comprising: a fabric member (20A, 20B) that configures a bag-like member of the airbag (20; 50); and a partition wall fabric that has portions respectively connected to a first part and a second part of the fabric member, wherein both ends of the partition wall fabric are sewed to the first part of the fabric member in a direction along the seat belt, wherein the first and second parts configure inner surface of the bag-like member, the first and second parts hold the seat belt, and the second part is configured to face a passenger and configured to be opposite to the first part, characterized in that the partition wall fabric partitions an inside of the bag-like member into a central inflatable portion and supporting inflatable portions each of which is located between a passenger-side surface of the fabric member (20A, 20B) and a fabric formed of the central inflatable portion, and a central part between the both ends of the partition wall fabric is sewed to the second part of the fabric member, so that the inside of the bag-like member is partitioned into the central inflatable portion and the supporting inflatable portions. a fabric member (20A, 20B) that configures a bag-like member of the airbag (20; 50); and a partition wall fabric that has portions respectively connected to a first part and a second part of the fabric member, wherein both ends of the partition wall fabric are sewed to the first part of the fabric member in a direction along the seat belt, wherein the first and second parts configure inner surface of the bag-like member, the first and second parts hold the seat belt, and the second part is configured to face a passenger and configured to be opposite to the first part, characterized in that the partition wall fabric partitions an inside of the bag-like member into a central inflatable portion and supporting inflatable portions each of which is located between a passenger-side surface of the fabric member (20A, 20B) and a fabric formed of the central inflatable portion, and a central part between the both ends of the partition wall fabric is sewed to the second part of the fabric member, so that the inside of the bag-like member is partitioned into the central inflatable portion and the supporting inflatable portions.
A battery comprising one or more electrode stack (2A, 2B, 2C, 2D), the one or more electrode stack (2A, 2B, 2C, 2D) comprising: an electrolyte layer including an electrolyte and a carboxymethylcellulose sodium salt; a first electrode layer including a first active material and a carboxymethylcellulose ammonium salt; and a second electrode layer including a second active material and a first binder soluble in an organic solvent, wherein the first electrode layer is bound to a first surface of the electrolyte layer, and the second electrode layer is bound to a second surface of the electrolyte layer on a reverse side to the first surface, wherein the electrolyte includes an inorganic solid electrolyte, wherein the first binder is at least one binder selected from the group consisting of polytetrafluoro ethylene, polyvinylidene difluoride, fluororubber, styrenebutadiene rubber, polyacrylic acid compounds, and imide compounds. an electrolyte layer including an electrolyte and a carboxymethylcellulose sodium salt; a first electrode layer including a first active material and a carboxymethylcellulose ammonium salt; and a second electrode layer including a second active material and a first binder soluble in an organic solvent,
An anti-latency-associated peptide ("anti-LAP") antibody, or antigen-binding fragment thereof, for use in a method of treating cancer, wherein the anti-LAP antibody comprises: a heavy chain variable region comprising four framework regions which are each at least 75%, 80%, 85%, 90%, 95%, or 100% identical to one, two, three or four of the framework regions of the heavy chain variable region of SEQ ID NO:8, wherein the heavy chain CDR1, CDR2, and CDR3 comprise the sequences set forth in SEQ ID NOs: 9, 10, and 11, respectively, optionally wherein the heavy chain variable region sequence is SEQ ID NO: 8; and a light chain variable region comprising four framework regions which are each at least 75%, 80%, 85%, 90%, 95%, or 100% identical to one, two, three or four of the framework regions of the light chain variable region of SEQ ID NO:13, wherein the light chain CDR1, CDR2, and CDR3 comprise the sequences set forth in SEQ ID NOs: 14, 15, and 16, respectively, optionally wherein the light chain variable region sequence is SEQ ID NO: 13. a heavy chain variable region comprising four framework regions which are each at least 75%, 80%, 85%, 90%, 95%, or 100% identical to one, two, three or four of the framework regions of the heavy chain variable region of SEQ ID NO:8, wherein the heavy chain CDR1, CDR2, and CDR3 comprise the sequences set forth in SEQ ID NOs: 9, 10, and 11, respectively, optionally wherein the heavy chain variable region sequence is SEQ ID NO: 8; and a light chain variable region comprising four framework regions which are each at least 75%, 80%, 85%, 90%, 95%, or 100% identical to one, two, three or four of the framework regions of the light chain variable region of SEQ ID NO:13, wherein the light chain CDR1, CDR2, and CDR3 comprise the sequences set forth in SEQ ID NOs: 14, 15, and 16, respectively, optionally wherein the light chain variable region sequence is SEQ ID NO: 13.
A system comprising: a stimulation generator configured to apply stimulation therapy via one or more electrodes based on a set of stimulation therapy parameters; and a processor configured to: control the stimulation generator to provide, via the one or more electrodes, an initial stimulation therapy; sense, via the one or more electrodes and in response to the application of the initial stimulation therapy, a first electrically evoked compound action potential (eECAP) signal, wherein the first eECAP signal is an eECAP baseline; control the stimulation generator to provide a candidate stimulation therapy, via the one or more electrodes, based on a set of candidate therapy parameters, sense, via the one or more electrodes and in response to the application of the candidate stimulation therapy, a second electrically evoked compound action potential (eECAP) signal generated in response to the application of the candidate stimulation therapy, classify the second sensed eECAP signal generated in response to the application of the candidate stimulation therapy relative to the eECAP baseline; and select, based on the classification of the second sensed eECAP relative to the eECAP baseline and a power consumption of the candidate stimulation therapy relative to the initial stimulation therapy, one of the initial stimulation therapy and the candidate stimulation therapy for subsequent electrical stimulation. a stimulation generator configured to apply stimulation therapy via one or more electrodes based on a set of stimulation therapy parameters; and a processor configured to: control the stimulation generator to provide, via the one or more electrodes, an initial stimulation therapy; sense, via the one or more electrodes and in response to the application of the initial stimulation therapy, a first electrically evoked compound action potential (eECAP) signal, wherein the first eECAP signal is an eECAP baseline; control the stimulation generator to provide, via the one or more electrodes, an initial stimulation therapy; sense, via the one or more electrodes and in response to the application of the initial stimulation therapy, a first electrically evoked compound action potential (eECAP) signal, wherein the first eECAP signal is an eECAP baseline; control the stimulation generator to provide a candidate stimulation therapy, via the one or more electrodes, based on a set of candidate therapy parameters, sense, via the one or more electrodes and in response to the application of the candidate stimulation therapy, a second electrically evoked compound action potential (eECAP) signal generated in response to the application of the candidate stimulation therapy, classify the second sensed eECAP signal generated in response to the application of the candidate stimulation therapy relative to the eECAP baseline; and select, based on the classification of the second sensed eECAP relative to the eECAP baseline and a power consumption of the candidate stimulation therapy relative to the initial stimulation therapy, one of the initial stimulation therapy and the candidate stimulation therapy for subsequent electrical stimulation.