mhurhangee/ep-ind-claims huggingface dataset:
An elevator system comprising: an elevator car; one or more sheaves; and one or more belts operably connected to the car and interactive with the one or more sheaves for suspending and/or driving the elevator car, the one or more belts comprising a plurality of wires arranged into one or more cords, and a jacket substantially retaining the one or more cords, wherein: a cord ratio, between a smallest sheave diameter of the one or more sheaves of the elevator system that are interactive with the belt and a largest cord diameter (dc) of the one or more cords, (D/dc) is less than 55; a wire ratio, between the smallest sheave diameter and the largest wire diameter (dw) of the plurality of wires, (D/dw) is between 160 and 315 and; characterized in that at least one of the one or more cords includes a king strand formed from a plurality of king wires significantly smaller than the other wires in the cord. an elevator car; one or more sheaves; and one or more belts operably connected to the car and interactive with the one or more sheaves for suspending and/or driving the elevator car, the one or more belts comprising a plurality of wires arranged into one or more cords, and a jacket substantially retaining the one or more cords, wherein: a cord ratio, between a smallest sheave diameter of the one or more sheaves of the elevator system that are interactive with the belt and a largest cord diameter (dc) of the one or more cords, (D/dc) is less than 55; a wire ratio, between the smallest sheave diameter and the largest wire diameter (dw) of the plurality of wires, (D/dw) is between 160 and 315 and; characterized in that at least one of the one or more cords includes a king strand formed from a plurality of king wires significantly smaller than the other wires in the cord. a cord ratio, between a smallest sheave diameter of the one or more sheaves of the elevator system that are interactive with the belt and a largest cord diameter (dc) of the one or more cords, (D/dc) is less than 55; a wire ratio, between the smallest sheave diameter and the largest wire diameter (dw) of the plurality of wires, (D/dw) is between 160 and 315 and; characterized in that at least one of the one or more cords includes a king strand formed from a plurality of king wires significantly smaller than the other wires in the cord.
A reservoir comprising: • a storage compartment for containing a medical fluid, • at least one wall which delimits the storage compartment, wherein the one wall is a flexible wall (1, 220 601), and • at least one access port (103, 603) which communicates with the storage compartment; wherein the emptying of the reservoir comprises two distinct phases: • a constant phase during which the reservoir pressure is substantially constant when a first volume of medical fluid is emptied from the reservoir, and • a variable phase during which said pressure varies when a second volume of medical fluid is emptied from the reservoir; wherein the reservoir further comprises a cavity (221, 241, 606) arranged into the storage compartment and having a predefined volume corresponding to the second volume of medical fluid, wherein during the variable phase, the flexible wall reduces the volume of the cavity; and wherein the flexible wall and/or the cavity are designed in such manner as to induce a change in reservoir pressure when the flexible wall collapses into the cavity. • a storage compartment for containing a medical fluid, • at least one wall which delimits the storage compartment, wherein the one wall is a flexible wall (1, 220 601), and • at least one access port (103, 603) which communicates with the storage compartment; • a constant phase during which the reservoir pressure is substantially constant when a first volume of medical fluid is emptied from the reservoir, and • a variable phase during which said pressure varies when a second volume of medical fluid is emptied from the reservoir;
A device for cleaning containers comprising a tray mounted in rotation according to a first axis and first means for driving the tray in rotation according to the first axis, the tray comprising at least three compartments configured to angularly compartmentalise said tray around the first axis, the cleaning device successively comprising at least one loading/unloading station, a washing station and a rinsing station, the compartments successively moving from one station to another, with a treatment time T on each station, by performing a rotation of the tray over 360°, characterised in that each compartment comprises a container holder configured to removably receive a container to be cleaned, each container holder being mounted in rotation relative to the tray according to a second axis parallel to the first axis, second rotational drive means being configured to simultaneously drive all of the container holders in rotation over 360° according to the second axes, during the treatment time T.
An electromechanical microspeaker comprising: a single substrate wherein the substrate is planar; a deformable membrane; and a speaker cavity disposed between the substrate and the deformable membrane such that the deformable membrane spans the speaker cavity, wherein the speaker cavity is a sealed speaker cavity defined by the substrate and the deformable membrane such that it is enclosed on all sides; the deformable membrane including a piezoelectric layer sandwiched between first and second conductive layers (320,340) and including a dielectric layer, wherein the deformable membrane is configured to deform on application of a drive voltage across the piezoelectric layer. a single substrate wherein the substrate is planar; a deformable membrane; and a speaker cavity disposed between the substrate and the deformable membrane such that the deformable membrane spans the speaker cavity, wherein the speaker cavity is a sealed speaker cavity defined by the substrate and the deformable membrane such that it is enclosed on all sides; the deformable membrane including a piezoelectric layer sandwiched between first and second conductive layers (320,340) and including a dielectric layer, wherein the deformable membrane is configured to deform on application of a drive voltage across the piezoelectric layer.
An apparatus comprising: a heater configured to heat smokeable material to volatilize at least one component of the smokeable material, and thermal insulation characterised by the thermal insulation comprising: a boundary comprising a first boundary section, a second boundary section and a third boundary section which connects the first and second boundary sections together; and an internal insulating region inside the boundary and configured to thermally insulate the first boundary section from the second boundary section; wherein the third boundary section follows an indirect path between the first and second boundary sections, and wherein the indirect path comprises a non-straight path. a heater configured to heat smokeable material to volatilize at least one component of the smokeable material, and thermal insulation characterised by the thermal insulation comprising: a boundary comprising a first boundary section, a second boundary section and a third boundary section which connects the first and second boundary sections together; and an internal insulating region inside the boundary and configured to thermally insulate the first boundary section from the second boundary section; wherein the third boundary section follows an indirect path between the first and second boundary sections, and wherein the indirect path comprises a non-straight path. a boundary comprising a first boundary section, a second boundary section and a third boundary section which connects the first and second boundary sections together; and an internal insulating region inside the boundary and configured to thermally insulate the first boundary section from the second boundary section; wherein the third boundary section follows an indirect path between the first and second boundary sections, and wherein the indirect path comprises a non-straight path.
A method for reprovisioning a token device that implements a one time password algorithm based upon at least one secret, wherein the token device stores a first secret, characterized in that the token device has a token public key and a token private key, the method including: sending, by the token device to a certificate authority through a network, a request for a device certificate that includes the token public key; receiving, by the token device from the certificate authority through the network, the device certificate that includes: a second secret different from the first secret, wherein the second secret is encrypted by the token public key, the token public key received from the token device, and a digital signature that is based upon a secret asymmetric key of the certificate authority; decrypting, by the token device, the second secret using the token private key; replacing, by the token device, the first secret stored in the token device with the second secret; generating, by the token device, a one time password based at least on the second secret, sending, by the token device, the one time password to an application, and sending, by the application, the one time password to the certificate authority to authenticate a user. sending, by the token device to a certificate authority through a network, a request for a device certificate that includes the token public key; receiving, by the token device from the certificate authority through the network, the device certificate that includes: a second secret different from the first secret, wherein the second secret is encrypted by the token public key, the token public key received from the token device, and a digital signature that is based upon a secret asymmetric key of the certificate authority; a second secret different from the first secret, wherein the second secret is encrypted by the token public key, the token public key received from the token device, and a digital signature that is based upon a secret asymmetric key of the certificate authority; decrypting, by the token device, the second secret using the token private key; replacing, by the token device, the first secret stored in the token device with the second secret; generating, by the token device, a one time password based at least on the second secret, sending, by the token device, the one time password to an application, and sending, by the application, the one time password to the certificate authority to authenticate a user.
A displacement sensor comprising a magnetic field source, which generates a magnetic field, and a magnetic field sensor arrangement, for contactlessly detecting a relative position of the magnetic field source and the magnetic field sensor arrangement with respect to each other, wherein the magnetic field source and the magnetic field sensor arrangement are movable relative to each other, wherein the magnetic field sensor arrangement comprises a first magnetic field sensor for generating a first position signal and at least one second magnetic field sensor for generating a second position signal; wherein each of the magnetic field sensors (108, 110) comprises at least one magnetic field probe for detecting a magnetic flux density of the magnetic field, an evaluation unit for evaluating an output signal of the magnetic field probe, and a communication interface for emitting and receiving communication signals, and wherein the first and the second magnetic field sensors are connected to each other via a data bus for transmitting said communication signals, wherein the magnetic field sensor arrangement has a housing which encloses all the magnetic field sensors (108, 110), characterized in that the displacement sensor further comprises a carrier formed by injection moulding a plastic around a leadframe; wherein the first magnetic field sensor and the at least one second magnetic field sensor are connected to each other via said leadframe such that the leadframe produces a terminal to the outside and a bidirectional data bus connection between the first and the second magnetic field sensor. wherein the magnetic field sensor arrangement comprises a first magnetic field sensor for generating a first position signal and at least one second magnetic field sensor for generating a second position signal; wherein each of the magnetic field sensors (108, 110) comprises at least one magnetic field probe for detecting a magnetic flux density of the magnetic field, an evaluation unit for evaluating an output signal of the magnetic field probe, and a communication interface for emitting and receiving communication signals, and wherein the first and the second magnetic field sensors are connected to each other via a data bus for transmitting said communication signals, wherein the magnetic field sensor arrangement has a housing which encloses all the magnetic field sensors (108, 110), characterized in that the displacement sensor further comprises a carrier formed by injection moulding a plastic around a leadframe; wherein the first magnetic field sensor and the at least one second magnetic field sensor are connected to each other via said leadframe such that the leadframe produces a terminal to the outside and a bidirectional data bus connection between the first and the second magnetic field sensor.
Method for controlling a diesel engine, comprising: - determining a charge quantity of a fuel for injection into a combustion chamber of the diesel engine; - determining, in a manner dependent on the determined charge quantity of the fuel, an air quantity to be provided for the combustion in order to attain a setpoint value (λ S) for a ratio of the air quantity to the charge quantity of the fuel; and - controlling a closing time of an inlet valve for the supply of air into the combustion chamber in a manner dependent on the determined air quantity, characterized in that, during a step change in load which is characterized by an increasing charge quantity of the fuel to be injected in the case of a constant charge pressure, the setpoint value (λ S) for the ratio of the air quantity to the charge quantity is kept constant by means of an enlargement of the effective swept volume, wherein the effective swept volume corresponds to the volume of the combustion chamber at the closing time of the inlet valve. - determining a charge quantity of a fuel for injection into a combustion chamber of the diesel engine; - determining, in a manner dependent on the determined charge quantity of the fuel, an air quantity to be provided for the combustion in order to attain a setpoint value (λ S) for a ratio of the air quantity to the charge quantity of the fuel; and - controlling a closing time of an inlet valve for the supply of air into the combustion chamber in a manner dependent on the determined air quantity,
Temperature sensor circuit for measuring a temperature, comprising a measurement resistor and a controllable voltage source or current source which is connected to the measurement resistor and can be used to apply an input voltage to the measurement resistor, wherein the input voltage can be adjusted continuously using the controllable voltage source or current source, characterized in that the current flowing through the temperature sensor circuit is adjusted by means of pulses of the variable voltage supply in such a manner that the self-heating of the sensor is reduced and the measurement accuracy is increased. characterized in that the current flowing through the temperature sensor circuit is adjusted by means of pulses of the variable voltage supply in such a manner that the self-heating of the sensor is reduced and the measurement accuracy is increased.
An integrated perfusion system (10, 52) comprising: a heart lung machine (12, 54) including a plurality of pump modules, each pump module including a control unit; a controller (20, 60) in communication with each of the pump module control units; an input device in communication with the controller and configured to accept operational settings information from a user; an output device in communication with the controller and configured to display operational parameters of the plurality of pump modules; and an RF sensor in communication with the controller; and one or more disposable elements (14, 82, 92) configured to be used in conjunction with the heart lung machine and including an RFID tag programmed with disposable element-specific information that can be read by the RF sensor and used by the controller to regulate operation of the heart lung machine, characterized in that the one or more disposable elements include a passive RFID tag, in that the RF sensor comprises a hand-held RF reader to scan the passive RFID tag on the one or more disposable elements (14, 82, 92), in that the one or more disposable elements include a blood reservoir (56, 82, 92), the blood reservoir (56, 82, 92) including an RFID tag configured to provide the controller with information pertaining to the known geometry of the blood reservoir (56, 82, 92), and in that the perfusion system further includes a blood level sensor (86, 96) with an RFID tag attached thereto and configured to wirelessly transmit a signal from the blood level sensor (86, 96) to said controller, so that said controller may determine a blood volume within the blood reservoir (82, 92) on the basis of the geometric configuration of the blood reservoir (56, 82, 92) and a blood level information from said blood level sensor (86, 96). a heart lung machine (12, 54) including a plurality of pump modules, each pump module including a control unit; a controller (20, 60) in communication with each of the pump module control units; an input device in communication with the controller and configured to accept operational settings information from a user; an output device in communication with the controller and configured to display operational parameters of the plurality of pump modules; and an RF sensor in communication with the controller; and one or more disposable elements (14, 82, 92) configured to be used in conjunction with the heart lung machine and including an RFID tag programmed with disposable element-specific information that can be read by the RF sensor and used by the controller to regulate operation of the heart lung machine,
A method of informing a first network node of a wireless communication network of the presence of logged measurements from a first mobile station, the method comprising the steps of: performing (78; 98; 110) measurements concerning one or more connectivity aspects for the first mobile station in relation to the wireless communication network, said measurements being performed according to a reporting configuration for the first mobile station, storing (80; 100; 112) the measurements in an internal log, and characterised by; sending a notification to the first network node regarding the presence of logged measurements in order to enable the first network node to respond to the notification with a request for a logged measurement report. performing (78; 98; 110) measurements concerning one or more connectivity aspects for the first mobile station in relation to the wireless communication network, said measurements being performed according to a reporting configuration for the first mobile station, storing (80; 100; 112) the measurements in an internal log, and characterised by; sending a notification to the first network node regarding the presence of logged measurements in order to enable the first network node to respond to the notification with a request for a logged measurement report.
A reaction solution comprising water, sucrose and a glucosyltransferase enzyme that synthesizes poly alpha-1,3-1,6-glucan, wherein said glucosyltransferase enzyme comprises an amino acid sequence that is at least 90% identical to SEQ ID NO:2, SEQ ID NO:8, or SEQ ID NO:10.
An information processing method, applied to a User Equipment, UE, and comprising: receiving, by the UE, first Downlink Control Information, DCI, used for scheduling first downlink data transmission, wherein the first DCI is transmitted on a first Control Resource Set, CORESET, in a first CORESET group, and the first CORESET group comprises one or more CORESETs; and detecting, by the UE, second DCI for scheduling second downlink data transmission, wherein the first DCI corresponds to a first Transmission Configuration Indicator, TCI, state group, and, the second DCI corresponds to a second TCI state group; wherein the method further comprises: determining one or more TCI states according to Radio Resource Control, RRC, configuration signaling; and selecting at least part of TCI states in the one or more TCI states as the first TCI state group according to Media Access Control, MAC, Control Element, CE, signaling. receiving, by the UE, first Downlink Control Information, DCI, used for scheduling first downlink data transmission, wherein the first DCI is transmitted on a first Control Resource Set, CORESET, in a first CORESET group, and the first CORESET group comprises one or more CORESETs; and detecting, by the UE, second DCI for scheduling second downlink data transmission, wherein the first DCI corresponds to a first Transmission Configuration Indicator, TCI, state group, and, the second DCI corresponds to a second TCI state group; wherein the method further comprises: determining one or more TCI states according to Radio Resource Control, RRC, configuration signaling; and selecting at least part of TCI states in the one or more TCI states as the first TCI state group according to Media Access Control, MAC, Control Element, CE, signaling. determining one or more TCI states according to Radio Resource Control, RRC, configuration signaling; and selecting at least part of TCI states in the one or more TCI states as the first TCI state group according to Media Access Control, MAC, Control Element, CE, signaling.