mhurhangee/ep-ind-claims huggingface dataset:
A method of accelerating a brushless, BLDC switched reluctance electric motor based on torque, comprising: applying, in the BLDC electric motor, pulse-width modulation pulses to a stator with a plurality of stator poles to cause a rotor with a plurality of rotor poles to rotate; determining a slope, that is a ratio of i) a change from a first maximum torque of the BLDC electric motor to a second maximum torque of the BLDC electric motor that results from adjusting phase advances of PWM pulses to maximize power realized at a first operating load and to maximize power realized at a second operating load, the first maximum torque of the BLDC electric motor being at the first operating load and the second maximum torque of the BLDC electric motor being at the second operating load, the second operating load being greater than the first operating load, to ii) a difference between the second operating load and the first operating load; generating, by a sensor for a partial revolution of the rotor, a signal including a transition caused by one of the plurality of rotor poles passing the sensor so as to indicate the partial revolution of the rotor; determining a period of the partial revolution based on the transition and a previous transition caused by a previous one of the plurality of rotor poles passing the sensor; determining a phase advance for a subsequent partial revolution of the rotor based on the period and the slope; and applying the phase advance to a subsequent PWM pulse applied to the plurality of stator poles corresponding to the subsequent partial revolution of the rotor. applying, in the BLDC electric motor, pulse-width modulation pulses to a stator with a plurality of stator poles to cause a rotor with a plurality of rotor poles to rotate; determining a slope, that is a ratio of i) a change from a first maximum torque of the BLDC electric motor to a second maximum torque of the BLDC electric motor that results from adjusting phase advances of PWM pulses to maximize power realized at a first operating load and to maximize power realized at a second operating load, the first maximum torque of the BLDC electric motor being at the first operating load and the second maximum torque of the BLDC electric motor being at the second operating load, the second operating load being greater than the first operating load, to ii) a difference between the second operating load and the first operating load; generating, by a sensor for a partial revolution of the rotor, a signal including a transition caused by one of the plurality of rotor poles passing the sensor so as to indicate the partial revolution of the rotor; determining a period of the partial revolution based on the transition and a previous transition caused by a previous one of the plurality of rotor poles passing the sensor; determining a phase advance for a subsequent partial revolution of the rotor based on the period and the slope; and applying the phase advance to a subsequent PWM pulse applied to the plurality of stator poles corresponding to the subsequent partial revolution of the rotor.
A syringe carrier comprising: a syringe having a barrel (2.1) and a needle shield covering a needle arranged on a distal end of the syringe, wherein a circumferential gap is provided between the barrel (2.1) of the syringe and the needle shield, and a body (1.1), wherein the barrel (2.1) is received in the body (1.1), the body (1.1) including at least two sections (1.1.1) having distal ends with shoulder sections (1.4) shaped as portions of a circle arranged in a transverse plane with respect to a longitudinal axis of the syringe carrier, wherein the sections (1.1.1) are resiliently coupled to a collar (1.2) on a distal end of the body (1.1), and wherein the shoulder sections (1.4) are adapted to engage the circumferential gap to prevent the syringe from moving in a distal direction relative to the syringe carrier. a syringe having a barrel (2.1) and a needle shield covering a needle arranged on a distal end of the syringe, wherein a circumferential gap is provided between the barrel (2.1) of the syringe and the needle shield, and a body (1.1), wherein the barrel (2.1) is received in the body (1.1), the body (1.1) including at least two sections (1.1.1) having distal ends with shoulder sections (1.4) shaped as portions of a circle arranged in a transverse plane with respect to a longitudinal axis of the syringe carrier, wherein the sections (1.1.1) are resiliently coupled to a collar (1.2) on a distal end of the body (1.1), and wherein the shoulder sections (1.4) are adapted to engage the circumferential gap to prevent the syringe from moving in a distal direction relative to the syringe carrier.
A hydraulic pump which rotates in both directions, and which comprises a casing, a common drive shaft mounted so as to be able to rotate relative to the casing, two swashplates (101, 102) borne by the common drive shaft, these two swashplates (101, 102) being symmetric and opposite each other, a respective hollow piston pressing against each swashplate and designed to slide in a respective cylinder connected to the casing, each cylinder being fitted with a check valve on the discharge side, characterized in that each of the two swashplates comprises one supply crescent (106, 107); the respective hollow pistons press against each swashplate via the intermediary of a slipper shoe; the crescent of the swashplate is in each case arranged so as to pass over the hollow piston during a suction phase of the hollow piston; the check valves are arranged such that only one of the two swashplates provides an output when the drive shaft rotates in one direction, the other swashplate providing an output when the shaft rotates in the other direction.
A flexible membrane mechanism for use in a valve mechanism, the flexible membrane mechanism comprising: a lid member; and a flexible membrane that forms a space (R 3) between the lid member and the flexible membrane, wherein the flexible membrane is deformable such that a valve of the valve mechanism can be opened and closed and includes a protrusion portion that forms a projection toward the lid member and a recess facing the opposite side to the projection, characterized by a fluid flow path that communicates with the space, wherein the protrusion portion and the recess are annular and surround a contact portion to form a bellows, such that the flexible membrane is deformable between (i) a first state in which the flexible membrane bends toward the lid member, and (ii) a second state in which the flexible membrane bends toward the valve mechanism. a lid member; and a flexible membrane that forms a space (R 3) between the lid member and the flexible membrane, wherein the flexible membrane is deformable such that a valve of the valve mechanism can be opened and closed and includes a protrusion portion that forms a projection toward the lid member and a recess facing the opposite side to the projection, characterized by a fluid flow path that communicates with the space, wherein the protrusion portion and the recess are annular and surround a contact portion to form a bellows, such that the flexible membrane is deformable between (i) a first state in which the flexible membrane bends toward the lid member, and (ii) a second state in which the flexible membrane bends toward the valve mechanism.
Identification device for mounting around a ham, comprising an information support bound to a flexible attach element forming a first closed loop the attach element running through at least one hole formed in the fastening element, and a rigid or semi rigid fastening element; characterized in that the fastening element is bound to a first extremity of the first closed loop, the information support being comprised in or on a surface of the fastening element, the fastening element comprising, in the first extremity of the first closed loop, a rigid or semi-rigid portion substantially transversal to the attach element, the rigid or semi-rigid portion substantially transversal to the attach element forming the only abutment for cooperating with a second extremity of the first closed loop for the binding around an ham, and characterized in that in its mounted position around an object, the fastening element is located between the first and the second extremities of the first closed loop.
A system for providing connectivity service in a multi-tenant network, comprising: a router; a mobile gateway in communication with the router over the multi-tenant network, the mobile gateway being configured to provide a connection to a service provider network; wherein the router is further characterized in that it is configured to receive a plurality of data packets, each of the data packets identifying one of a plurality of tenant devices, wherein each of the plurality of tenant devices is associated with one of a plurality of tenants; the router further configured to determine an Internet Protocol, IP, address associated with each of the data packets; the router further configured to determine a Virtual Local Area Network Identifier, VLAN ID, based on the IP address, the VLAN ID being a unique identifier of a respective one of the tenants; the router further configured to add the VLAN ID of a corresponding one of the tenants into a header of each of the data packets; and the router further configured to transport the data packets to the mobile gateway via a multi-tenant network tunnel protocol. a router; a mobile gateway in communication with the router over the multi-tenant network, the mobile gateway being configured to provide a connection to a service provider network; wherein the router is further characterized in that it is configured to receive a plurality of data packets, each of the data packets identifying one of a plurality of tenant devices, wherein each of the plurality of tenant devices is associated with one of a plurality of tenants; the router further configured to determine an Internet Protocol, IP, address associated with each of the data packets; the router further configured to determine a Virtual Local Area Network Identifier, VLAN ID, based on the IP address, the VLAN ID being a unique identifier of a respective one of the tenants; the router further configured to add the VLAN ID of a corresponding one of the tenants into a header of each of the data packets; and the router further configured to transport the data packets to the mobile gateway via a multi-tenant network tunnel protocol.
A control method comprising: determining geometric information about respective geometries of respective housings of a plurality of light sources provided in at least one computer peripheral device; determining a photographic representation of an environment in which the plurality of light sources are provided; determining spatial information about the plurality of light sources based on the geometric information and based on the photographic representation; determining control information for the plurality of light sources based on the spatial information; and controlling the plurality of light sources based on the control information; wherein the geometric information is determined based on a database of geometries of housings; and wherein the spatial information comprises information indicating at least one of a relative orientation of each light source of the plurality of light sources with respect to at least one other light source of the plurality of light sources or an absolute orientation of each light source of the plurality of light sources. determining geometric information about respective geometries of respective housings of a plurality of light sources provided in at least one computer peripheral device; determining a photographic representation of an environment in which the plurality of light sources are provided; determining spatial information about the plurality of light sources based on the geometric information and based on the photographic representation; determining control information for the plurality of light sources based on the spatial information; and controlling the plurality of light sources based on the control information; wherein the geometric information is determined based on a database of geometries of housings; and wherein the spatial information comprises information indicating at least one of a relative orientation of each light source of the plurality of light sources with respect to at least one other light source of the plurality of light sources or an absolute orientation of each light source of the plurality of light sources.
A mobile communication system, which includes a base station and a first user terminal and a second user terminal that establish a connection with the base station, wherein when the first user terminal starts D2D communication, which is direct device to device communication, with the second user terminal, the first user terminal notifies the base station of an amount of specific data to be transmitted in the D2D communication; when the second user terminal starts D2D communication, the second user terminal notifies the base station of an amount of specific data transmitted in the D2D communication; and the base station assigns a radio resource to the D2D communication on the basis of the amount of the specific data corresponding to each of the first user terminal and the second user terminal; characterized in that when it is not possible to transmit the amount of the specific data, which corresponds to the first user terminal, in a range of radio resource that is assigned to the D2D communication, the first user terminal notifies the base station of a remaining amount of specific data.
A method for simulating an operation of a mechanical lock in an electronic context, comprising: applying a contactless wireless credential to a lock; authenticating the credential; and unlocking the lock to provide access to a resource protected by the lock based on having authenticated the credential; whereby the contactless wireless credential is communicated by a mobile phone to the lock; and comprising: determining a security level (208a - 208c) associated with the lock; upon unlocking the lock, conditionally capturing the credential based on the security level (208a - 208c), wherein conditionally capturing the credential comprises an application running on the mobile phone simulating capture of the credential, comprising revoking the credential until a re-lock status of the lock is indicated; restricting access to a second resource during a time when the credential is captured; determining that the lock is relocked subsequent to unlocking the lock; and based on determining that the lock is relocked, releasing the credential when the credential was captured. applying a contactless wireless credential to a lock; authenticating the credential; and unlocking the lock to provide access to a resource protected by the lock based on having authenticated the credential; whereby the contactless wireless credential is communicated by a mobile phone to the lock; and comprising: determining a security level (208a - 208c) associated with the lock; upon unlocking the lock, conditionally capturing the credential based on the security level (208a - 208c), wherein conditionally capturing the credential comprises an application running on the mobile phone simulating capture of the credential, comprising revoking the credential until a re-lock status of the lock is indicated; restricting access to a second resource during a time when the credential is captured; determining that the lock is relocked subsequent to unlocking the lock; and based on determining that the lock is relocked, releasing the credential when the credential was captured. determining a security level (208a - 208c) associated with the lock; upon unlocking the lock, conditionally capturing the credential based on the security level (208a - 208c), wherein conditionally capturing the credential comprises an application running on the mobile phone simulating capture of the credential, comprising revoking the credential until a re-lock status of the lock is indicated; restricting access to a second resource during a time when the credential is captured; determining that the lock is relocked subsequent to unlocking the lock; and based on determining that the lock is relocked, releasing the credential when the credential was captured.
Feed device (12; 112) for supplying by cable an electrical consuming device, which is movable with respect to the feed device (12; 112) in at least one travel direction, with electrical energy and/or data, wherein an electric cable carried by the electrical consuming device is connectable to the feed device (12; 112), wherein the feed device (12; 112) has at least one connection part (15, 15'; 115, 115', 115"), which is rotatable about at least one pivot axis (D, D'), for the cable, characterised in that the feed device (12; 112) has a holding device (37, 37'; 164, 164', 164") for holding the connection part (15, 15'; 115, 115', 115") in a rest position, wherein the cable projects upwards in the rest position of the connection part (15, 15'; 115, 115', 115").
A method of estimating a finger movement across a surface of a fingerprint sensor, said method comprising the steps of: acquiring a navigation evaluation image from each of at least three navigation subareas of said fingerprint sensor, the navigation subareas having predefined sizes and locations; determining, for each of said navigation evaluation images, a navigation-related property of said navigation evaluation image; evaluating said navigation-related property of each of said navigation evaluation images to find a combination of at least a first navigation-related property of a first navigation evaluation image and a second navigation-related property of a second navigation evaluation image that fulfills a navigation requirement; selecting, for estimation of said finger movement, at least a first navigation subarea that was used for acquiring said first navigation evaluation image and a second navigation subarea that was used for acquiring said second navigation evaluation image; and estimating said finger movement across the surface of the fingerprint sensor using a sequence of first navigation images acquired using said first navigation subarea, and a sequence of second navigation images acquired using said second navigation subarea. acquiring a navigation evaluation image from each of at least three navigation subareas of said fingerprint sensor, the navigation subareas having predefined sizes and locations; determining, for each of said navigation evaluation images, a navigation-related property of said navigation evaluation image; evaluating said navigation-related property of each of said navigation evaluation images to find a combination of at least a first navigation-related property of a first navigation evaluation image and a second navigation-related property of a second navigation evaluation image that fulfills a navigation requirement; selecting, for estimation of said finger movement, at least a first navigation subarea that was used for acquiring said first navigation evaluation image and a second navigation subarea that was used for acquiring said second navigation evaluation image; and estimating said finger movement across the surface of the fingerprint sensor using a sequence of first navigation images acquired using said first navigation subarea, and a sequence of second navigation images acquired using said second navigation subarea.
A method of load measurement for bearers carrying rate adaptive services in a wireless communications network (300,400), the method performed by a node of the wireless communications network (300, 400) and comprising: receiving a plurality of packets associated with a bearer during a fixed time period, wherein the packets comprised in the plurality of packets are either uplink packets or downlink packets; calculating a bit rate for the plurality of packets received; marking each of the plurality of packets received with information associated with the calculated bit rate; calculating a resource block usage based on a sum of a physical resource block, PRB, consumption for rate adaptive services using the marked packets, the calculated bit rates therein, and a guaranteed bit rate, GBR, for the bearer; and estimating cell load based on average resource block usage, wherein the sum of the PRB consumption is calculated using the following equation: Modified G i = ∑ PRB consumption of packets j if BR j ≤ GBR i j = 1, 2... k, the Modified G i is a number of PRBs used for a bearer i, BR j is the marked bit rate for packet j, and GBR i is a guaranteed bit rate for the bearer i. receiving a plurality of packets associated with a bearer during a fixed time period, wherein the packets comprised in the plurality of packets are either uplink packets or downlink packets; calculating a bit rate for the plurality of packets received; marking each of the plurality of packets received with information associated with the calculated bit rate; calculating a resource block usage based on a sum of a physical resource block, PRB, consumption for rate adaptive services using the marked packets, the calculated bit rates therein, and a guaranteed bit rate, GBR, for the bearer; and estimating cell load based on average resource block usage, wherein the sum of the PRB consumption is calculated using the following equation: Modified G i = ∑ PRB consumption of packets j if BR j ≤ GBR i j = 1, 2... k, the Modified G i is a number of PRBs used for a bearer i, BR j is the marked bit rate for packet j, and GBR i is a guaranteed bit rate for the bearer i.
Capacitive driving system, comprising: - a supply device, the supply device comprising a power generator having two output terminals (14, 15), at least one set of capacitive transmission electrodes (11, 12) coupled to respective ones of the output terminals (14, 15); - at least one load device, the load device comprising two capacitive receiver electrodes (21, 22) and at least one load member coupled to said receiver electrodes (21, 22); wherein at least one of the supply device and the load device comprise at least one inductor connected in series with at least one of said respective electrodes (11, 12; 21, 22); wherein the supply device and the load device have an energy transfer position in which a first one of said transmission electrodes together with a first one of said receiver electrodes defines a first transfer capacitor while simultaneously a second one of said transmission electrodes together with a second one of said receiver electrodes defines a second transfer capacitor; wherein, in the energy transfer position, resonant energy transfer takes place from the supply device to the load member; wherein, in the resonant circuit containing the at least one inductor and the load member in the energy transfer position, at least one auxiliary capacitance (111; 112; 121; 122) is connected in series with the inductor and the load member; wherein the capacitance value of each one of said transfer capacitors (31, 32) is in a range from (1-Δ1)·C1 to (1+Δ1)·C1, in which C1 is indicated as design capacitance of the transfer capacitors and in which Δ1 is indicated as variation of the transfer capacitors; wherein the capacitance value of the auxiliary capacitance is in a range from (1-Δa)·Ca to (1+Δa)·Ca, in which Ca is indicated as design capacitance of the auxiliary capacitance and in which Δa is indicated as variation of the auxiliary capacitance; and wherein Ca < C1 applies and wherein Δa < Δ1 applies. - a supply device, the supply device comprising a power generator having two output terminals (14, 15), at least one set of capacitive transmission electrodes (11, 12) coupled to respective ones of the output terminals (14, 15); - at least one load device, the load device comprising two capacitive receiver electrodes (21, 22) and at least one load member coupled to said receiver electrodes (21, 22);