mhurhangee/patent-ind-claim-en huggingface dataset:
A surgical device comprising: an interior surface on which light will be shined during surgery; wherein the interior surface belongs to a blade case; characterised in that the blade case comprises a plastic solid shape that is black or dark; and the interior surface is light-absorbing and is integral with the blade case formed from a black material or a dark material. an interior surface on which light will be shined during surgery; wherein the interior surface belongs to a blade case; characterised in that the blade case comprises a plastic solid shape that is black or dark; and the interior surface is light-absorbing and is integral with the blade case formed from a black material or a dark material.
A medical, in particular dental system comprising: a medical, in particular dental, straight handpiece or contra-angled handpiece , at least one transmitting unit and at least one receiving unit , wherein the at least two units are configured for capacitive coupling of electrical signals and/ or data into and/or out of a human body , so that an electric path for the transmission of electric signals and/ or data between the at least two units can be established which extends through the human body of the user and/or of the person to be treated, characterized in that the at least one receiving unit is disposed in or on the medical, in particular dental, straight handpiece or contra-angled handpiece which is configured to drive a tool which works on a treatment site and/or to emit radiation, fluids, energy, and/or abrasive media and/or to provide measurement data, and that the at least one transmitting unit is disposed in or on at least one accessory of the medical, in particular dental system and which is configured for operation with the straight handpiece or contra-angled handpiece in order to transmit electrical signals and/ or data between the accessory and the medical, in particular dental, straight handpiece or contra-angled handpiece , wherein the accessory is configured as glasses .
An information processing device comprising: a communication unit configured to exchange of a wireless signal with another information processing device for generating or updating a multi-hop communication path; and a control unit configured to update path information regarding the multi-hop communication path, wherein the multi-hop communication path has been set through the exchange of the wireless signal before the path information is destroyed; wherein the control unit is configured to decide an effective time and an updating time based on expiration time information included in the wireless signal, wherein the effective time specifies a time at which the path information is destroyed and the updating time specifies a time during which the path information is updated, wherein the updating time is shorter than the effective time; and wherein, when the same multi-hop communication path is consecutively selected as a communication path updated through the exchange of the signal, or when a rate of selection of the same multi-hop communication path is higher than a predetermined value, the control unit is configured to lengthen the effective time and the updating time. a communication unit configured to exchange of a wireless signal with another information processing device for generating or updating a multi-hop communication path; and a control unit configured to update path information regarding the multi-hop communication path, wherein the multi-hop communication path has been set through the exchange of the wireless signal before the path information is destroyed; wherein the control unit is configured to decide an effective time and an updating time based on expiration time information included in the wireless signal, wherein the effective time specifies a time at which the path information is destroyed and the updating time specifies a time during which the path information is updated, wherein the updating time is shorter than the effective time; and wherein, when the same multi-hop communication path is consecutively selected as a communication path updated through the exchange of the signal, or when a rate of selection of the same multi-hop communication path is higher than a predetermined value, the control unit is configured to lengthen the effective time and the updating time.
A method for forming a non-pneumatic tire comprising: providing a spoke mold configured to form one or more spokes of the non-pneumatic tire , the spoke mold including a mold cavity at least partially defined by one or more molding surfaces ; applying a mold release to the one or more molding surfaces , the mold release including an electrically conductive additive ; arranging a thermosetting material into the molding cavity; curing the thermosetting material within the mold cavity to form one or more molded spokes of the non-pneumatic tire , such that the electrically conductive additive of the mold release is intermixed within a thickness of each of the one or more molded spokes at a location within the thickness adjacent to an outer surface of each corresponding molded spoke and thereby forming an electrically conductive path along each corresponding molded spoke ; and, removing the one or more molded spokes from the mold . providing a spoke mold configured to form one or more spokes of the non-pneumatic tire , the spoke mold including a mold cavity at least partially defined by one or more molding surfaces ; applying a mold release to the one or more molding surfaces , the mold release including an electrically conductive additive ; arranging a thermosetting material into the molding cavity; curing the thermosetting material within the mold cavity to form one or more molded spokes of the non-pneumatic tire , such that the electrically conductive additive of the mold release is intermixed within a thickness of each of the one or more molded spokes at a location within the thickness adjacent to an outer surface of each corresponding molded spoke and thereby forming an electrically conductive path along each corresponding molded spoke ; and, removing the one or more molded spokes from the mold .
A landing door locking mechanism of an elevator system comprising: a body housing key-engagement elements and having a first end and a second end , the key-engagement elements located at the first end ; and a keyway structure , wherein in a first position the first end of the body is exposed such that a key may be inserted into a keyway of the keyway structure and interact with the key-engagement elements; a biasing mechanism configured to bias a moveable portion of the body toward a second position, wherein in the second position a key cannot interact with the key-engagement elements; and a solenoid configured to apply a force on the moveable portion of the body when the solenoid is energized such that the moveable portion of the body is moved from the second position to the first position; characterised in that : the second end of the body defines a plunger . a body housing key-engagement elements and having a first end and a second end , the key-engagement elements located at the first end ; and a keyway structure , wherein in a first position the first end of the body is exposed such that a key may be inserted into a keyway of the keyway structure and interact with the key-engagement elements; a biasing mechanism configured to bias a moveable portion of the body toward a second position, wherein in the second position a key cannot interact with the key-engagement elements; and a solenoid configured to apply a force on the moveable portion of the body when the solenoid is energized such that the moveable portion of the body is moved from the second position to the first position;
A method performed by a first communication device for adapting a random backoff contention window size, the method comprising: - transmitting , a plurality of transmissions, to at least one second communication device; - receiving from the at least one second communication device a plurality of Hybrid Automatic Repeat reQuest, HARQ, feedback values corresponding to the plurality of transmissions; and - adapting a random backoff contention window size based on the received plurality of HARQ feedback values. - transmitting , a plurality of transmissions, to at least one second communication device; - receiving from the at least one second communication device a plurality of Hybrid Automatic Repeat reQuest, HARQ, feedback values corresponding to the plurality of transmissions; and - adapting a random backoff contention window size based on the received plurality of HARQ feedback values.
A method of concurrently creating a frictional washing surface and joining the frictional washing surface to the surface of a housing material for a sealable waterproof bag for washing one or more textile items, the method including: i) Applying a quantity of a polymer to the surface of the housing material for the sealable bag ; ii) Positioning a tool on the quantity of the polymer , the tool including a void region containing depressions and/or projections complementary to the shape of the frictional washing surface to be produced; and iii) Applying heat and/or a current and/or a frequency to the tool to soften the polymer and allow it to form the shape of the frictional washing surface characterized in that step iii) is high frequency welding which allows the polymer to form the shape of the frictional washing surface and concurrently joins the frictional washing surface to the housing material for the sealable bag . i) Applying a quantity of a polymer to the surface of the housing material for the sealable bag ; ii) Positioning a tool on the quantity of the polymer , the tool including a void region containing depressions and/or projections complementary to the shape of the frictional washing surface to be produced; and iii) Applying heat and/or a current and/or a frequency to the tool to soften the polymer and allow it to form the shape of the frictional washing surface
An electronic device comprising: a first housing comprising a first face facing in a first direction; a second housing comprising a second face facing in the first direction; a hinge assembly for coupling the first housing to the second housing such that the first housing and the second housing can be folded for each other, and for allowing the first face and the second face to face each other when the first housing and the second housing are completely folded; a flexible display disposed in at least a portion of the first face and at least a portion of the second face and across the hinge assembly ; a guide member disposed in the hinge assembly which moves based on a folding motion and an unfolding motion of the hinge assembly ; and a drive assembly for moving the flexible display in a sliding manner in a direction opposite to a direction of the guide member on the second face, wherein the drive assembly takes the form of a lever assembly which comprises: a lever disposed to one end of the hinge assembly in a rotatable manner, and installed such that one end with respect to a rotation axis interlocks with the guide member , and a slide plate installed on the second face in a sliding manner by being connected to the other end of the lever to accommodate the flexible display , wherein the lever moves the slide plate in a direction opposite to a movement direction of the guide member . a first housing comprising a first face facing in a first direction; a second housing comprising a second face facing in the first direction; a hinge assembly for coupling the first housing to the second housing such that the first housing and the second housing can be folded for each other, and for allowing the first face and the second face to face each other when the first housing and the second housing are completely folded; a flexible display disposed in at least a portion of the first face and at least a portion of the second face and across the hinge assembly ; a guide member disposed in the hinge assembly which moves based on a folding motion and an unfolding motion of the hinge assembly ; and a drive assembly for moving the flexible display in a sliding manner in a direction opposite to a direction of the guide member on the second face, wherein the drive assembly takes the form of a lever assembly which comprises: a lever disposed to one end of the hinge assembly in a rotatable manner, and installed such that one end with respect to a rotation axis interlocks with the guide member , and a slide plate installed on the second face in a sliding manner by being connected to the other end of the lever to accommodate the flexible display , a lever disposed to one end of the hinge assembly in a rotatable manner, and installed such that one end with respect to a rotation axis interlocks with the guide member , and a slide plate installed on the second face in a sliding manner by being connected to the other end of the lever to accommodate the flexible display , wherein the lever moves the slide plate in a direction opposite to a movement direction of the guide member .
A battery pack , comprising: a) a frame ; and b) two or more battery cells installed to the frame ; the two or more battery cells interconnected by a rotatable connector which is configured to enable electrical connections between the two or more battery cells ; wherein, the rotatable connector is adapted to be switched between at least a first rotational position in which the two or more battery cells being electrically connected, and a second rotational position, in which the two or more battery cells being not electrically connected. a) a frame ; and b) two or more battery cells installed to the frame ; the two or more battery cells interconnected by a rotatable connector which is configured to enable electrical connections between the two or more battery cells ;
A variable area turbine vane row assembly, wherein the vanes are spaced apart circumferentially, comprising: a first fixed vane ; a second fixed vane proximate the first fixed vane; and a plurality of rotatable vanes (112b-d) positioned between the first and second fixed vanes; wherein no other fixed vanes are positioned between the first and second fixed vanes ; characterised in that a first rotatable vane of the plurality of rotatable vanes is axially biased in a forward design direction with respect to the first and second fixed vanes. a first fixed vane ; a second fixed vane proximate the first fixed vane; and a plurality of rotatable vanes (112b-d) positioned between the first and second fixed vanes; wherein no other fixed vanes are positioned between the first and second fixed vanes ; characterised in that a first rotatable vane of the plurality of rotatable vanes is axially biased in a forward design direction with respect to the first and second fixed vanes.
An electronic device for an aircraft, comprising: a casing including a bottom wall and a side wall rising from the bottom wall , wherein a heating element is attached to the side wall at an opposite side to the bottom wall ; a boss projecting from the bottom wall toward the opposite side to the bottom wall with respect to the side wall ; and a circuit portion fixed to the boss , characterized in that the electronic device for an aircraft further comprising a base provided between the casing and the heating element , wherein the base is made of a material having a lower thermal conductivity than the casing , wherein a spacer is attached to the base , wherein the base is attached to the heating element via the spacer , wherein the spacer is made of a material having a lower thermal conductivity than the casing , wherein the circuit portion is fixed to a distal end surface of the boss , and wherein a distance (Z) between the heating element and the distal end surface of the boss is larger than a projection length of the boss from the bottom wall . a casing including a bottom wall and a side wall rising from the bottom wall , wherein a heating element is attached to the side wall at an opposite side to the bottom wall ; a boss projecting from the bottom wall toward the opposite side to the bottom wall with respect to the side wall ; and a circuit portion fixed to the boss , characterized in that the electronic device for an aircraft further comprising a base provided between the casing and the heating element , wherein the base is made of a material having a lower thermal conductivity than the casing , wherein a spacer is attached to the base , wherein the base is attached to the heating element via the spacer , wherein the spacer is made of a material having a lower thermal conductivity than the casing , wherein the circuit portion is fixed to a distal end surface of the boss , and wherein a distance (Z) between the heating element and the distal end surface of the boss is larger than a projection length of the boss from the bottom wall .
A method of adjusting, by a user equipment , uplink timing in a wireless communication system, the method comprising: transmitting (S905), to a base station , a random access preamble; receiving (S910), from the base station , a random access response including a first timing advance, TA, command based on the random access preamble; and transmitting (S915), to the base station , a uplink signal by applying a timing advance, TA, value based on the first TA command, wherein the first TA command is based on a largest subcarrier spacing, among subcarrier spacings of a plurality of frequency resource regions configuring a timing advance group, TAG, and wherein a maximum value of the TA value is based on a minimum subcarrier spacing, among subcarrier spacings of a plurality of frequency resource regions configuring a TAG, wherein, for an update of previously configured uplink timing, a second TA command is received through a medium access control-control element, MAC-CE, wherein an adjustment unit of the second TA command is determined by the base station , wherein the adjustment unit of the second TA command is received through a system information block, and wherein a bit field size of the second TA command is configured differently from the first TA command. transmitting (S905), to a base station , a random access preamble; receiving (S910), from the base station , a random access response including a first timing advance, TA, command based on the random access preamble; and transmitting (S915), to the base station , a uplink signal by applying a timing advance, TA, value based on the first TA command, wherein the first TA command is based on a largest subcarrier spacing, among subcarrier spacings of a plurality of frequency resource regions configuring a timing advance group, TAG, and wherein a maximum value of the TA value is based on a minimum subcarrier spacing, among subcarrier spacings of a plurality of frequency resource regions configuring a TAG, wherein, for an update of previously configured uplink timing, a second TA command is received through a medium access control-control element, MAC-CE, wherein an adjustment unit of the second TA command is determined by the base station , wherein the adjustment unit of the second TA command is received through a system information block, and wherein a bit field size of the second TA command is configured differently from the first TA command.
A bowed rotor prevention system (42; 101) for a gas turbine engine, the bowed rotor prevention system comprising: a core turning motor operable to drive rotation of an engine core of the gas turbine engine; and an auxiliary electric motor control operable to control the core turning motor to drive rotation of the engine core using electric power while a full authority digital engine control (FADEC) that controls operation of the gas turbine engine is either depowered or in a power state that is less than a power level used by the FADEC in flight operation; characterised in that the FADEC is operable to perform a dry motoring process based on the auxiliary electric motor control indicating that a bowed rotor prevention process was unsuccessfully completed using the core turning motor , the dry motoring process comprising actively adjusting a starter valve by the FADEC to deliver air pressure from an air supply to an engine starting system that controls a starting rotor speed of the engine core. a core turning motor operable to drive rotation of an engine core of the gas turbine engine; and an auxiliary electric motor control operable to control the core turning motor to drive rotation of the engine core using electric power while a full authority digital engine control (FADEC) that controls operation of the gas turbine engine is either depowered or in a power state that is less than a power level used by the FADEC in flight operation; characterised in that the FADEC is operable to perform a dry motoring process based on the auxiliary electric motor control indicating that a bowed rotor prevention process was unsuccessfully completed using the core turning motor , the dry motoring process comprising actively adjusting a starter valve by the FADEC to deliver air pressure from an air supply to an engine starting system that controls a starting rotor speed of the engine core.
A clock synchronization method, comprising: receiving, by a network device (103 - 111), a first announce packet from a first master clock node and a second announce packet from a second master clock node, wherein the first announce packet carries a first identifier of a first clock source node and a first maximum clock deviation accumulated value, the second announce packet carries a second identifier of a second clock source node and a second maximum clock deviation accumulated value, the first maximum clock deviation accumulated value is a sum of a plurality of first maximum clock deviations on a path from the first clock source node to the first master clock node, and the second maximum clock deviation accumulated value is a sum of a plurality of second maximum clock deviations on a path from the second clock source node to the second master clock node; comparing (S302), by the network device, the identifier of the first clock source node with the identifier of the second clock source node; selecting, by the network device (103 - 111) from the first master clock node and the second master clock node based on the first maximum clock deviation accumulated value and the second maximum clock deviation accumulated value, a master clock node for clock synchronization when the first identifier is the same as the second identifier; and calibrating, by the network device (103 - 111), a clock of the network device (103 - 111) based on time information of the selected master clock node. receiving, by a network device (103 - 111), a first announce packet from a first master clock node and a second announce packet from a second master clock node, wherein the first announce packet carries a first identifier of a first clock source node and a first maximum clock deviation accumulated value, the second announce packet carries a second identifier of a second clock source node and a second maximum clock deviation accumulated value, the first maximum clock deviation accumulated value is a sum of a plurality of first maximum clock deviations on a path from the first clock source node to the first master clock node, and the second maximum clock deviation accumulated value is a sum of a plurality of second maximum clock deviations on a path from the second clock source node to the second master clock node; comparing (S302), by the network device, the identifier of the first clock source node with the identifier of the second clock source node; selecting, by the network device (103 - 111) from the first master clock node and the second master clock node based on the first maximum clock deviation accumulated value and the second maximum clock deviation accumulated value, a master clock node for clock synchronization when the first identifier is the same as the second identifier; and calibrating, by the network device (103 - 111), a clock of the network device (103 - 111) based on time information of the selected master clock node.