mhurhangee/ep-ind-claims huggingface dataset:
A finger-mounted remote control device capable of wirelessly transmitting a travel request signal to a materials handling vehicle comprising: a mounting structure (172, 174) adapted to be mounted to at least one finger (F, F1, FM) of an operator's hand; a mounting strap coupled to said mounting structure (172, 174) for securing said mounting structure (172, 174) to the at least one finger (F, F1, FM); a wireless transmitter/power pack unit coupled to said mounting structure (172, 174); and control structure coupled to said mounting structure (172, 174) and comprising a switch adapted to be actuated by an operator's thumb so as to cause said wireless transmitter/power pack unit to generate a travel request signal to the materials handling vehicle; characterised in that the mounting strap contacts at least one finger (F, F1, FM) of the operator's hand; and the mounting structure (172, 174) is adapted to be fitted over the index and middle fingers of an operator. a mounting structure (172, 174) adapted to be mounted to at least one finger (F, F1, FM) of an operator's hand; a mounting strap coupled to said mounting structure (172, 174) for securing said mounting structure (172, 174) to the at least one finger (F, F1, FM); a wireless transmitter/power pack unit coupled to said mounting structure (172, 174); and control structure coupled to said mounting structure (172, 174) and comprising a switch adapted to be actuated by an operator's thumb so as to cause said wireless transmitter/power pack unit to generate a travel request signal to the materials handling vehicle; characterised in that
A battery module comprising: a battery stack including a plurality of batteries that are stacked to each other; constraining members that are made of metal and include a flat surface portion extending in a stacking direction of the batteries along the battery stack, the constraining members sandwiching the plurality of batteries in the stacking direction and the opposite direction of the stacking direction; and a side separator that includes an insulating property and insulates each of the constraining members and the battery stack side from each other, characterized in that the side separator includes: a first portion extending in the stacking direction along the battery stack and interposed between the battery stack and the flat surface portion of the constraining members; and a biasing portion that protrudes toward the battery stack from one end portion region of the first portion of the side separator in a first direction that is an in-plane direction of the flat surface portion of the constraining members and intersects with the stacking direction, and biases the plurality of batteries toward another end portion region of the first portion of the side separator in the first direction. a battery stack including a plurality of batteries that are stacked to each other; constraining members that are made of metal and include a flat surface portion extending in a stacking direction of the batteries along the battery stack, the constraining members sandwiching the plurality of batteries in the stacking direction and the opposite direction of the stacking direction; and a side separator that includes an insulating property and insulates each of the constraining members and the battery stack side from each other, characterized in that the side separator includes: a first portion extending in the stacking direction along the battery stack and interposed between the battery stack and the flat surface portion of the constraining members; and a biasing portion that protrudes toward the battery stack from one end portion region of the first portion of the side separator in a first direction that is an in-plane direction of the flat surface portion of the constraining members and intersects with the stacking direction, and biases the plurality of batteries toward another end portion region of the first portion of the side separator in the first direction. a first portion extending in the stacking direction along the battery stack and interposed between the battery stack and the flat surface portion of the constraining members; and a biasing portion that protrudes toward the battery stack from one end portion region of the first portion of the side separator in a first direction that is an in-plane direction of the flat surface portion of the constraining members and intersects with the stacking direction, and biases the plurality of batteries toward another end portion region of the first portion of the side separator in the first direction.
A method for context-sensitive hand interaction with an immersive environment (402, 602, 802) comprising: determining, by a context determiner, a contextual factor for a user, wherein the contextual factor includes properties of the user in a physical environment, properties of a representation of the user in an immersive environment, or values of settings in the system that the user is able to modify; selecting an interaction mode based on the contextual factor, wherein the interaction mode defines how user inputs interact with the immersive environment (402, 602, 802), and wherein the interaction mode is a ray-based collision mode and the method further includes generating a virtual ray (502, 610, 812) that extends in the pointing direction from a finger of the user; monitoring a hand of the user to determine a hand property, including monitoring the hand to determine a pointing direction of the finger of the user's hand; and determining an interaction with an immersive environment (402, 602, 802) based on the interaction mode and the hand property. determining, by a context determiner, a contextual factor for a user, wherein the contextual factor includes properties of the user in a physical environment, properties of a representation of the user in an immersive environment, or values of settings in the system that the user is able to modify; selecting an interaction mode based on the contextual factor, wherein the interaction mode defines how user inputs interact with the immersive environment (402, 602, 802), and wherein the interaction mode is a ray-based collision mode and the method further includes generating a virtual ray (502, 610, 812) that extends in the pointing direction from a finger of the user; monitoring a hand of the user to determine a hand property, including monitoring the hand to determine a pointing direction of the finger of the user's hand; and determining an interaction with an immersive environment (402, 602, 802) based on the interaction mode and the hand property.
A powered toothbrush having a handle with a neck portion extending from the handle, comprising: a head connected to said neck portion, said head having an exposed outer surface; a first tuft block mounted to said head, said first tuft block having a first array of bristles extending outwardly from the exposed outer surface of said head; a first drive member operatively connected to said first tuft block for moving said first tuft block about an axis perpendicular to the exposed outer surface of said head; a second tuft block mounted to said head, said second tuft block having a second array of bristles extending outwardly from the exposed outer surface; and a second drive member operatively connected to said second tuft block for moving said second tuft block in a direction perpendicular to the exposed outer surface of said head; characterised in that said second tuft block includes a plurality of notches (50a, 50b, 50c) provided in a top surface thereof. a head connected to said neck portion, said head having an exposed outer surface; a first tuft block mounted to said head, said first tuft block having a first array of bristles extending outwardly from the exposed outer surface of said head; a first drive member operatively connected to said first tuft block for moving said first tuft block about an axis perpendicular to the exposed outer surface of said head; a second tuft block mounted to said head, said second tuft block having a second array of bristles extending outwardly from the exposed outer surface; and a second drive member operatively connected to said second tuft block for moving said second tuft block in a direction perpendicular to the exposed outer surface of said head; characterised in that said second tuft block includes a plurality of notches (50a, 50b, 50c) provided in a top surface thereof.
A tire comprising: an inner liner; a circumferential tread; a pair of sidewalls (115a, 115b), each sidewall including an outer rubber layer; a pair of bead portions (120a, 120b), each bead portion including a bead (125a, 125b) and a bead filler (130a, 130b) having an apex (135a, 135b); at least one body ply extending from bead to bead, wherein at least a portion of the body ply is disposed between the inner liner and the outer rubber layer of each sidewall (115a, 115b); wherein the body ply includes a pair of turn up portions (145a, 145b), each turn up portion having a turn up end (150a, 150b) axially outside of a respective bead (120a, 120b) and radially below the apex (135a, 135b) of a respective bead filler (130a, 130b); an electronic device disposed between the inner liner and the outer rubber layer of one of the pair of sidewalls (115a, 115b), characterised in that the electronic device is encapsulated in an adhesive, wherein the adhesive is one of a solvent-based adhesive and a water-based adhesive, and wherein the adhesive includes at least one of natural rubber, styrene butadiene rubber, and butadiene rubber. an inner liner; a circumferential tread; a pair of sidewalls (115a, 115b), each sidewall including an outer rubber layer; a pair of bead portions (120a, 120b), each bead portion including a bead (125a, 125b) and a bead filler (130a, 130b) having an apex (135a, 135b); at least one body ply extending from bead to bead, wherein at least a portion of the body ply is disposed between the inner liner and the outer rubber layer of each sidewall (115a, 115b); wherein the body ply includes a pair of turn up portions (145a, 145b), each turn up portion having a turn up end (150a, 150b) axially outside of a respective bead (120a, 120b) and radially below the apex (135a, 135b) of a respective bead filler (130a, 130b); wherein at least a portion of the body ply is disposed between the inner liner and the outer rubber layer of each sidewall (115a, 115b); wherein the body ply includes a pair of turn up portions (145a, 145b), each turn up portion having a turn up end (150a, 150b) axially outside of a respective bead (120a, 120b) and radially below the apex (135a, 135b) of a respective bead filler (130a, 130b); an electronic device disposed between the inner liner and the outer rubber layer of one of the pair of sidewalls (115a, 115b), characterised in that the electronic device is encapsulated in an adhesive, wherein the adhesive is one of a solvent-based adhesive and a water-based adhesive, and wherein the adhesive includes at least one of natural rubber, styrene butadiene rubber, and butadiene rubber.
A system comprising: a non-contact sensor (102; 201) configured to receive signals (401; 402) reflected from a subject's body; and one or more processors configured to: generate a respiratory movement signal from at least one reflected signal (401; 402) received by the non-contact sensor (102; 201); derive a first respiratory parameter from the respiratory movement signal; generate a respiratory envelope signal from the respiratory movement signal; derive a second respiratory parameter from the respiratory envelope signal, wherein the second respiratory parameter is an apnea hypopnea index, wherein deriving the apnea hypopnea index comprises comparing an overall amplitude of the respiratory envelope signal to one or more thresholds using pre-established or adaptive rules, and wherein the apnea hypopnea index is calculated as an average number of apneas and hypopneas per hour of sleep; and provide an output pertaining to a health assessment of the subject (101; 202) based on at least the first and second respiratory parameters. a non-contact sensor (102; 201) configured to receive signals (401; 402) reflected from a subject's body; and one or more processors configured to: generate a respiratory movement signal from at least one reflected signal (401; 402) received by the non-contact sensor (102; 201); derive a first respiratory parameter from the respiratory movement signal; generate a respiratory envelope signal from the respiratory movement signal; derive a second respiratory parameter from the respiratory envelope signal, wherein the second respiratory parameter is an apnea hypopnea index, wherein deriving the apnea hypopnea index comprises comparing an overall amplitude of the respiratory envelope signal to one or more thresholds using pre-established or adaptive rules, and wherein the apnea hypopnea index is calculated as an average number of apneas and hypopneas per hour of sleep; and provide an output pertaining to a health assessment of the subject (101; 202) based on at least the first and second respiratory parameters. generate a respiratory movement signal from at least one reflected signal (401; 402) received by the non-contact sensor (102; 201); derive a first respiratory parameter from the respiratory movement signal; generate a respiratory envelope signal from the respiratory movement signal; derive a second respiratory parameter from the respiratory envelope signal, wherein the second respiratory parameter is an apnea hypopnea index, wherein deriving the apnea hypopnea index comprises comparing an overall amplitude of the respiratory envelope signal to one or more thresholds using pre-established or adaptive rules, and wherein the apnea hypopnea index is calculated as an average number of apneas and hypopneas per hour of sleep; and provide an output pertaining to a health assessment of the subject (101; 202) based on at least the first and second respiratory parameters.
A user equipment, UE, for communication system, comprising a session connection controller for combining at least two sessions received through different transmission paths into at least one session, or dividing at least one session into at least two sessions to be transmitted through different transmission paths, wherein the different transmission paths are established through different communication devices in an identical communication network, and wherein the different communication device includes at least one of NodeBs, relays, repeaters and femtocell NodeBs; the UE characterized in that: the UE further comprises a session characteristics determination unit for determining characteristics of each of sessions selected from at least one layer, wherein each of the at least one layer is selected from the group consisting of a transport layer, a network layer, and a physical layer, wherein the session characteristics determination unit determines at least one selected from the group consisting of a session size, a session connection mode, session flexibility, and quality of experience, QoE, of the layer or each of at least two layers selected from the group consisting of a transport layer, a network layer, and a physical layer, wherein the session flexibility is a degree of response to change of service and traffic, network load, and a channel state, and wherein the session connection controller controls at least one selected from the group consisting of session establishment, session close, session change, and session connection for connection of a session of the at least one layer of which characteristics are determined by the session characteristics determination unit by using at least one of the paths, which are determined by a path characteristic determination unit. the UE further comprises a session characteristics determination unit for determining characteristics of each of sessions selected from at least one layer, wherein each of the at least one layer is selected from the group consisting of a transport layer, a network layer, and a physical layer, wherein the session characteristics determination unit determines at least one selected from the group consisting of a session size, a session connection mode, session flexibility, and quality of experience, QoE, of the layer or each of at least two layers selected from the group consisting of a transport layer, a network layer, and a physical layer, wherein the session flexibility is a degree of response to change of service and traffic, network load, and a channel state, and wherein the session connection controller controls at least one selected from the group consisting of session establishment, session close, session change, and session connection for connection of a session of the at least one layer of which characteristics are determined by the session characteristics determination unit by using at least one of the paths, which are determined by a path characteristic determination unit.
Method for operating an induction hob, the induction hob having - a hob plate, - at least two induction heating coils under the hob plate, - a hob control, - a power unit for a power supply for the induction heating coils, the power unit: + is controlled by the hob control, + has a plurality of power switches that can be controlled by means of the parameters switch-on time and/or switch-off time, + is designed to generate a higher-frequency control signal for the power supply of the induction heating coils from the mains voltage by means of the power switches, - the power density spectra of the power supply to the two induction heating coils are estimated or measured, each power density spectrum having a maximum (f1, f2) at a frequency, in particular having a single maximum (f1, f2) at a frequency characterized in that in a first operating mode, the switch-on time and/or the switch-off time of at least one of the power switches is varied in order to actively change the power density spectrum of the power supply, so that the two power density spectra of the power supply for the two induction heating coils overlap to a greater extent, or so that the frequency difference between the two maxima (f1, f2) is reduced and/or that a resulting sum of the two power density spectra is formed and the difference in power density between a local minimum (fmin) of the sum, which is between the two maxima (f1, f2) of the sum, and the maxima (f1, f2) of the sum is reduced. - a hob plate, - at least two induction heating coils under the hob plate, - a hob control, - a power unit for a power supply for the induction heating coils, the power unit: + is controlled by the hob control, + has a plurality of power switches that can be controlled by means of the parameters switch-on time and/or switch-off time, + is designed to generate a higher-frequency control signal for the power supply of the induction heating coils from the mains voltage by means of the power switches, + is controlled by the hob control, + has a plurality of power switches that can be controlled by means of the parameters switch-on time and/or switch-off time, + is designed to generate a higher-frequency control signal for the power supply of the induction heating coils from the mains voltage by means of the power switches, - the power density spectra of the power supply to the two induction heating coils are estimated or measured, each power density spectrum having a maximum (f1, f2) at a frequency, in particular having a single maximum (f1, f2) at a frequency
A polarizing plate comprising: a polarizer; a first hard coating layer positioned on the polarizer, and containing a first binder resin comprising a (meth)acrylate-based (co)polymer; a light transmitting substrate positioned on the first hard coating layer, having retardation of at least 3000 nm and having in-plane birefringence; and a second hard coating layer positioned on the light transmitting substrate, and comprising a second binder resin and solid inorganic nanoparticles dispersed in the binder resin, wherein the first hard coating layer, the light transmitting substrate and the second hard coating layer are sequentially stacked and bonded on one side of the polarizer; and an acute angle formed by a slow axis of the light transmitting substrate and an absorption axis of the polarizer is 5 to 85°. a polarizer; a first hard coating layer positioned on the polarizer, and containing a first binder resin comprising a (meth)acrylate-based (co)polymer; a light transmitting substrate positioned on the first hard coating layer, having retardation of at least 3000 nm and having in-plane birefringence; and a second hard coating layer positioned on the light transmitting substrate, and comprising a second binder resin and solid inorganic nanoparticles dispersed in the binder resin, wherein the first hard coating layer, the light transmitting substrate and the second hard coating layer are sequentially stacked and bonded on one side of the polarizer; and an acute angle formed by a slow axis of the light transmitting substrate and an absorption axis of the polarizer is 5 to 85°.
An automatic release vacuum device (14; 114) for a material handling system, said automatic release vacuum device comprising: a unitary vacuum device body adapted to connect to a pressurized air supply, said vacuum device body having a vacuum passageway and a venturi nozzle (28; 128), said pressurized air supply being activatable to supply pressurized air at said venturi nozzle to generate at least a partial vacuum in said vacuum passageway via pressurized air flow through said venturi nozzle; a movable sealing element (54; 154) in said unitary vacuum device body passageway and moveable between a sealing position, where said movable sealing element enables a vacuum and a venting position, where said movable sealing element enables venting; said movable sealing element comprises a piston element that moves in said vacuum passageway of said vacuum device body, said piston element moving independently between said sealing and venting positions; said vacuum device enabling said movable sealing element to move toward said sealing position when said pressurized air supply is activated; and said movable sealing element being urged toward said venting position when said pressurized air supply is deactivated to substantially vent said vacuum passageway to atmosphere when said pressurized air supply is deactivated. a unitary vacuum device body adapted to connect to a pressurized air supply, said vacuum device body having a vacuum passageway and a venturi nozzle (28; 128), said pressurized air supply being activatable to supply pressurized air at said venturi nozzle to generate at least a partial vacuum in said vacuum passageway via pressurized air flow through said venturi nozzle; a movable sealing element (54; 154) in said unitary vacuum device body passageway and moveable between a sealing position, where said movable sealing element enables a vacuum and a venting position, where said movable sealing element enables venting; said movable sealing element comprises a piston element that moves in said vacuum passageway of said vacuum device body, said piston element moving independently between said sealing and venting positions; said vacuum device enabling said movable sealing element to move toward said sealing position when said pressurized air supply is activated; and said movable sealing element being urged toward said venting position when said pressurized air supply is deactivated to substantially vent said vacuum passageway to atmosphere when said pressurized air supply is deactivated.