mhurhangee/patent-ind-claim-en huggingface dataset:
Bidirectional bipolar transistor switch arrangement, comprising: a first bipolar transistor (Q1) of the PNP type and a second bipolar transistor (Q2) of the PNP type connected in anti-parallel between a first terminal and a second terminal, a resistor (R1) connected to the base of the first bipolar transistor (Q1) and of the second bipolar transistor and to a control terminal, the bidirectional bipolar transistor switch arrangement being characterized in that it furter comprises: a first diode (D1) connected with anode to the first terminal, a second diode (D2) connected with anode to the second terminal, the first diode and the second diode being connected via respective cathodes to a supply terminal that is linked to a control device to which a supply signal (Supply) is provided through the first and second diodes depending on which of the first terminal and second terminal a power supply is provided, wherein the control terminal is configured to receive a control signal (Control) and wherein the control terminal is linked to the control device from which the control signal is provided. a first bipolar transistor (Q1) of the PNP type and a second bipolar transistor (Q2) of the PNP type connected in anti-parallel between a first terminal and a second terminal, a resistor (R1) connected to the base of the first bipolar transistor (Q1) and of the second bipolar transistor and to a control terminal, the bidirectional bipolar transistor switch arrangement being characterized in that it furter comprises: a first diode (D1) connected with anode to the first terminal, a second diode (D2) connected with anode to the second terminal, the first diode and the second diode being connected via respective cathodes to a supply terminal that is linked to a control device to which a supply signal (Supply) is provided through the first and second diodes depending on which of the first terminal and second terminal a power supply is provided, wherein the control terminal is configured to receive a control signal (Control) and wherein the control terminal is linked to the control device from which the control signal is provided. a first diode (D1) connected with anode to the first terminal, a second diode (D2) connected with anode to the second terminal, the first diode and the second diode being connected via respective cathodes to a supply terminal that is linked to a control device to which a supply signal (Supply) is provided through the first and second diodes depending on which of the first terminal and second terminal a power supply is provided, wherein the control terminal is configured to receive a control signal (Control) and wherein the control terminal is linked to the control device from which the control signal is provided.
An elevator system having a cabin and a first and a second transport path (1; 2) for said cabin , wherein the direction of the first transport path runs vertically and the direction of the second transport path runs non-vertically, so that the direction of the first transport path differs from that of the second transport path , characterized in that in or on the cabin a signaling device is located, which displays a change of the cabin from the first transport path into the second transport path and/or vice versa.
A method of manufacturing an image display apparatus wherein an image display member and a light-transmissive cover member having a light shielding layer formed around an outer edge of the cover member are laminated to each other via a light-transmissive cured resin layer formed from a liquid photocurable resin composition such that a surface of the light-transmissive cover member on which the light shielding layer is formed is arranged on a side of the image display member , the manufacturing method comprising the following steps (A) to (C): <Step (A) > coating the surface of the light-transmissive cover member on which the light shielding layer is formed with the liquid photocurable resin composition in a thickness thicker than that of the light shielding layer so that a step formed by the light shielding layer and the surface of the light-transmissive cover member on which the light shielding layer is formed is canceled, wherein the liquid photocurable resin composition includes a material obtained by previously polymerizing photocurable (meth)acrylate, and the liquid photocurable resin composition has a viscosity of 0.01 to 100 Pa·s and is coated in a thickness 2 to 30 times a thickness of the light shielding layer ; <Step (B) > irradiating UV rays to the coated photocurable resin composition for curing to form a light-transmissive cured resin layer ; and <Step (C)> bonding the light-transmissive cover member with the image display member under pressure at 10°C to 80°C using a publicly known pressure bonding apparatus such that the light shielding layer and the light-transmissive cured resin layer are located inside. <Step (A) > coating the surface of the light-transmissive cover member on which the light shielding layer is formed with the liquid photocurable resin composition in a thickness thicker than that of the light shielding layer so that a step formed by the light shielding layer and the surface of the light-transmissive cover member on which the light shielding layer is formed is canceled, wherein the liquid photocurable resin composition includes a material obtained by previously polymerizing photocurable (meth)acrylate, and the liquid photocurable resin composition has a viscosity of 0.01 to 100 Pa·s and is coated in a thickness 2 to 30 times a thickness of the light shielding layer ; <Step (B) > irradiating UV rays to the coated photocurable resin composition for curing to form a light-transmissive cured resin layer ; and <Step (C)> bonding the light-transmissive cover member with the image display member under pressure at 10°C to 80°C using a publicly known pressure bonding apparatus such that the light shielding layer and the light-transmissive cured resin layer are located inside.
The use of a cyclodextrin for reducing polysorbate degradation in an aqueous formulation comprising a polysorbate and a cyclodextrin, wherein the resulting w/w ratio of cyclodextrin to polysorbate is greater than about 37.5:1 and wherein the formulation comprises about 0.01% (w/v) to 0.4% (w/v) polysorbate, and wherein the cyclodextrin is selected from HP-α-CD, HP-β-CD, and SBE-β-CD.
Endoscope comprising a proximal handle or interface, and an insertion cord extending distally from the handle or interface, the insertion cord having distal bending section , a control wheel arranged at the handle, the control wheel having a wheel rotation axis and a perimeter comprising protrusions extending away from the wheel rotation axis, the control wheel controlling bending of the bending section by rotation of the control wheel around the wheel rotation axis, wherein at least one protrusion comprises a base part and an extension part wherein the extension part is connected to the base part via a turning joint , wherein the extension part is extendable from a retracted position to an extended position characterized in that in the retracted position the extension part is arranged approximately parallel to the wheel rotation axis and in the extended position the extension part is twisted to extend approximately in a radial direction from the wheel rotation axis. a proximal handle or interface, and an insertion cord extending distally from the handle or interface, the insertion cord having distal bending section , a control wheel arranged at the handle, the control wheel having a wheel rotation axis and a perimeter comprising protrusions extending away from the wheel rotation axis, the control wheel controlling bending of the bending section by rotation of the control wheel around the wheel rotation axis, wherein at least one protrusion comprises a base part and an extension part wherein the extension part is connected to the base part via a turning joint , wherein the extension part is extendable from a retracted position to an extended position
A method of manufacturing an elastomeric container closure with embedded functional components, the method comprising: molding a drug-contacting part of the elastomeric container closure from a first material at a first temperature and for a first length of time, the exposure to the first temperature for the first length of time defining a first thermal exposure; after molding the drug-contacting part , inserting electronic components into the drug-contacting part , the electronic components having an operational thermal budget less than the first thermal exposure; and depositing a second material on the drug-contacting part and the inserted electronic components to form the elastomeric container closure , wherein forming the elastomeric container closure includes overmolding a non-drug-contacting part around the drug-contacting part with the second material at a second temperature for a second length of time defining a second thermal exposure that is less than the operational thermal budget of the electronic components to seal the electronic components inside the elastomeric container closure . after molding the drug-contacting part , inserting electronic components into the drug-contacting part , the electronic components having an operational thermal budget less than the first thermal exposure; and depositing a second material on the drug-contacting part and the inserted electronic components to form the elastomeric container closure , wherein forming the elastomeric container closure includes overmolding a non-drug-contacting part around the drug-contacting part with the second material at a second temperature for a second length of time defining a second thermal exposure that is less than the operational thermal budget of the electronic components to seal the electronic components inside the elastomeric container closure .
A wireless power-supplying system comprising a power-transmitting coil to be provided on the ground and a power-receiving coil provided above the power-transmitting coil , for wirelessly supply electric power from the power-transmitting coil to the power-receiving coil , the wireless power-supplying system comprising: a flexible cover provided so as to cover the power-transmitting coil , characterized in that the flexible cover is configured to be inflated to occupy a space between the power-transmitting coil and the power-receiving coil , wherein an internal space of the flexible cover is divided into a plurality of regions , and the wireless power-supplying system further comprises a gas-supplying member , wherein, when the electric power is supplied, the gas-supplying member sequentially supplies gas to the regions , starting from a part of the regions and switching at a time interval to a region adjacent to the part of the regions in a radial direction with respect to a direction perpendicular to an upper surface of the power-transmitting coil so that during the inflation of the flexible cover , the flexible cover assumes a specific shape capable of removing a foreign object laid on the flexible cover before occupying the space between the power-transmitting coil and the power-receiving coil . a flexible cover provided so as to cover the power-transmitting coil , characterized in that the flexible cover is configured to be inflated to occupy a space between the power-transmitting coil and the power-receiving coil , wherein an internal space of the flexible cover is divided into a plurality of regions , and the wireless power-supplying system further comprises a gas-supplying member , wherein, when the electric power is supplied, the gas-supplying member sequentially supplies gas to the regions , starting from a part of the regions and switching at a time interval to a region adjacent to the part of the regions in a radial direction with respect to a direction perpendicular to an upper surface of the power-transmitting coil so that during the inflation of the flexible cover , the flexible cover assumes a specific shape capable of removing a foreign object laid on the flexible cover before occupying the space between the power-transmitting coil and the power-receiving coil .
Kitchen appliance ; wherein the kitchen appliance comprises, - a container for holding a foodstuff ; - a temperature adjustment unit , which is designed to adjust the temperature of the container ; - at least one temperature sensor , which is designed to capture temperature data in respect of a temperature of the container and/or of the foodstuff ; - a motor , which is designed to drive a mixing tool in the container , in order to mix the foodstuff ; and - a control unit , which is designed - to operate the temperature adjustment unit , in order during a temperature adjustment operation to adjust the temperature of the foodstuff in the container to a target temperature ; - on the basis of the temperature data to determine an estimated value of a contents temperature of the foodstuff in the container ; - to determine a deviation of the estimated value of the contents temperature from the target temperature ; and - to adjust a mixing mode of the mixing tool during the temperature adjustment operation as a function of the deviation of the estimated value of the contents temperature from the target temperature . - a container for holding a foodstuff ; - a temperature adjustment unit , which is designed to adjust the temperature of the container ; - at least one temperature sensor , which is designed to capture temperature data in respect of a temperature of the container and/or of the foodstuff ; - a motor , which is designed to drive a mixing tool in the container , in order to mix the foodstuff ; and - a control unit , which is designed - to operate the temperature adjustment unit , in order during a temperature adjustment operation to adjust the temperature of the foodstuff in the container to a target temperature ; - on the basis of the temperature data to determine an estimated value of a contents temperature of the foodstuff in the container ; - to determine a deviation of the estimated value of the contents temperature from the target temperature ; and - to adjust a mixing mode of the mixing tool during the temperature adjustment operation as a function of the deviation of the estimated value of the contents temperature from the target temperature . - to operate the temperature adjustment unit , in order during a temperature adjustment operation to adjust the temperature of the foodstuff in the container to a target temperature ; - on the basis of the temperature data to determine an estimated value of a contents temperature of the foodstuff in the container ; - to determine a deviation of the estimated value of the contents temperature from the target temperature ; and - to adjust a mixing mode of the mixing tool during the temperature adjustment operation as a function of the deviation of the estimated value of the contents temperature from the target temperature .
An alveolar distraction device for bone tensioning, the alveolar distraction device comprising: (i) a main body comprising: at least one adaptor member having at least one connection platform; a strings positioning member attachable to the at least one adaptor member and extending along a longitudinal direction substantially perpendicular to a vertical axis of the adaptor member , the strings positioning member comprising a plurality of positioning features , spaced from each other along the longitudinal direction ; and (ii) a plurality of string pull assemblies , each comprising: a string having a first string end and a second string end, the second string end attached to a string engagement portion ; and a movable element attached to the first string end, configured to move so as to promote displacement of the string engagement portion in a distal direction, wherein each of the plurality of string pull assemblies is attached to the main body ; and wherein each string of the plurality of strings extends through or along a corresponding, different, positioning feature . (i) a main body comprising: at least one adaptor member having at least one connection platform; a strings positioning member attachable to the at least one adaptor member and extending along a longitudinal direction substantially perpendicular to a vertical axis of the adaptor member , the strings positioning member comprising a plurality of positioning features , spaced from each other along the longitudinal direction ; and at least one adaptor member having at least one connection platform; a strings positioning member attachable to the at least one adaptor member and extending along a longitudinal direction substantially perpendicular to a vertical axis of the adaptor member , the strings positioning member comprising a plurality of positioning features , spaced from each other along the longitudinal direction ; and (ii) a plurality of string pull assemblies , each comprising: a string having a first string end and a second string end, the second string end attached to a string engagement portion ; and a movable element attached to the first string end, configured to move so as to promote displacement of the string engagement portion in a distal direction, a string having a first string end and a second string end, the second string end attached to a string engagement portion ; and a movable element attached to the first string end, configured to move so as to promote displacement of the string engagement portion in a distal direction,
An elevator system , comprising: a plurality of elevator cars ; a plurality of elevator machines , respectively associated with the elevator cars to selectively cause movement of the associated elevator car, at least some of the elevator machines respectively operating in a first mode including consuming power and in a second mode including generating power; a power source that provides power for elevator car movement, the power source having a power output threshold and a power intake threshold, wherein the power output threshold corresponds to a maximum power capacity of the power source and the power intake threshold corresponds to a maximum amount of power that can be taken in by the power source from the elevator machines that are operating in the second mode; and at least one controller that is configured to: determine when the power source is providing power for the elevator system , characterized in that the at least one controller is further configured to: dynamically adjust how the plurality of machines move the elevator cars to maximize a number of the plurality of elevator cars being used to move passengers while keeping power consumption by the elevator system below the power output threshold and keeping power generation by the elevator system below the power intake threshold. a plurality of elevator cars ; a plurality of elevator machines , respectively associated with the elevator cars to selectively cause movement of the associated elevator car, at least some of the elevator machines respectively operating in a first mode including consuming power and in a second mode including generating power; a power source that provides power for elevator car movement, the power source having a power output threshold and a power intake threshold, wherein the power output threshold corresponds to a maximum power capacity of the power source and the power intake threshold corresponds to a maximum amount of power that can be taken in by the power source from the elevator machines that are operating in the second mode; and at least one controller that is configured to: determine when the power source is providing power for the elevator system , characterized in that the at least one controller is further configured to: dynamically adjust how the plurality of machines move the elevator cars to maximize a number of the plurality of elevator cars being used to move passengers while keeping power consumption by the elevator system below the power output threshold and keeping power generation by the elevator system below the power intake threshold. determine when the power source is providing power for the elevator system , characterized in that the at least one controller is further configured to: dynamically adjust how the plurality of machines move the elevator cars to maximize a number of the plurality of elevator cars being used to move passengers while keeping power consumption by the elevator system below the power output threshold and keeping power generation by the elevator system below the power intake threshold.
A communication method performed by a first terminal device, wherein the communication method comprises the steps of: • sending (S301) a first signal to a second terminal device; and • receiving (S303) feedback information from the second terminal device when the second terminal device is located in a specified area, wherein: ∘ the specified area is an area to which a distance from the first terminal device is greater than or equal to a lower distance threshold and less than or equal to an upper distance threshold, ∘ wherein the feedback information comprises a negative acknowledgment, NACK, and/or channel state information, CSI, and the upper distance threshold is negatively correlated with a quantity of negative acknowledgments, NACKs, or an amount of channel state information, CSI, less than or equal to a first threshold, and the lower distance threshold is positively correlated with the quantity of negative acknowledgments, NACKs, or the amount of channel state information, CSI, less than or equal to the first threshold. • sending (S301) a first signal to a second terminal device; and • receiving (S303) feedback information from the second terminal device when the second terminal device is located in a specified area, wherein: ∘ the specified area is an area to which a distance from the first terminal device is greater than or equal to a lower distance threshold and less than or equal to an upper distance threshold, ∘ wherein the feedback information comprises a negative acknowledgment, NACK, and/or channel state information, CSI, and the upper distance threshold is negatively correlated with a quantity of negative acknowledgments, NACKs, or an amount of channel state information, CSI, less than or equal to a first threshold, and the lower distance threshold is positively correlated with the quantity of negative acknowledgments, NACKs, or the amount of channel state information, CSI, less than or equal to the first threshold. ∘ the specified area is an area to which a distance from the first terminal device is greater than or equal to a lower distance threshold and less than or equal to an upper distance threshold, ∘ wherein the feedback information comprises a negative acknowledgment, NACK, and/or channel state information, CSI, and the upper distance threshold is negatively correlated with a quantity of negative acknowledgments, NACKs, or an amount of channel state information, CSI, less than or equal to a first threshold, and the lower distance threshold is positively correlated with the quantity of negative acknowledgments, NACKs, or the amount of channel state information, CSI, less than or equal to the first threshold.