mhurhangee/patent-ind-claim-en huggingface dataset:
A trainable transceiver for selectively transmitting commands associated with a single channel , comprising: a channel configured to be trained to control one or more functions of a remote device ; an electronic display configured to display one or more container elements ; a container element of the electronic display comprising a first soft key and a second soft key , wherein the container element is associated with the channel , wherein the first soft key is configured to control a first function of the remote device , and wherein the second soft key is configured to control a second function of the remote device ; characterised in that the trainable transceiver comprises: a comparator module configured to determine that a first message characteristic of a first message to control the first function of the remote device is similar to a second message characteristic of a second message to control the second function of the remote device ; and an interface module to set the channel to control the first function and the second function based on the determination that the first message characteristic of the first message to control the first function of the remote device is similar to the second message characteristic of the second message to control the second function of the remote device . a channel configured to be trained to control one or more functions of a remote device ; an electronic display configured to display one or more container elements ; a container element of the electronic display comprising a first soft key and a second soft key , wherein the container element is associated with the channel , wherein the first soft key is configured to control a first function of the remote device , and wherein the second soft key is configured to control a second function of the remote device ; characterised in that the trainable transceiver comprises: a comparator module configured to determine that a first message characteristic of a first message to control the first function of the remote device is similar to a second message characteristic of a second message to control the second function of the remote device ; and an interface module to set the channel to control the first function and the second function based on the determination that the first message characteristic of the first message to control the first function of the remote device is similar to the second message characteristic of the second message to control the second function of the remote device . a comparator module configured to determine that a first message characteristic of a first message to control the first function of the remote device is similar to a second message characteristic of a second message to control the second function of the remote device ; and an interface module to set the channel to control the first function and the second function based on the determination that the first message characteristic of the first message to control the first function of the remote device is similar to the second message characteristic of the second message to control the second function of the remote device .
Filling nozzle for dispensing a fluid, with an inlet for connecting a fluid feed line, a main channel which connects the inlet to an outlet , a main valve for controlling a total volumetric flow through the main channel , and with a vacuum line which opens into the main channel , the main channel having a part channel with a tapered portion , and the vacuum line opening in the region of the tapered portion into the part channel , characterized in that the main channel splits downstream of the main valve into the part channel and into at least two bypass channels (20 a- 20e) which run parallel to the part channel , the part channel and/or the at least two bypass channels (20a - 20e) having means for prioritizing the fluid throughflow which are configured in such a way that a relative proportion of the overall volumetric flow which flows through the part channel decreases as the total volumetric flow increases.
Footbed for a heeled shoe in which the hindfoot region is arranged at least 2 cm higher than the forefoot region, comprising a sole-shaped main body having a forefoot region , a midfoot region and a hindfoot region , and comprising at least one elevation arranged on a planar upper face to support a foot , wherein the main body , in the midfoot region , has a first elevation in the region of an inner foot side , which elevation extends from the midfoot region to the hindfoot region , and a second elevation in the region of an outer foot side , and the elevations are arranged so as to be offset relative to one another in the longitudinal extension of the main body , and the second elevation is substantially rectangular, round, semicircular, trapezoidal or elliptical and is designed to increase in the direction of an outer foot side edge, and the fourth and fifth metatarsal bones of a foot that can be arranged in this region can be raised as a result, such that a pressure which, without the elevation, would only act on a portion of the forefoot region, in particular the inner foot region, can be at least partially absorbed by the outer edge region of the foot, wherein at least one additional third elevation is arranged in the midfoot region . comprising a sole-shaped main body having a forefoot region , a midfoot region and a hindfoot region , and comprising at least one elevation arranged on a planar upper face to support a foot , wherein the main body , in the midfoot region , has a first elevation in the region of an inner foot side , which elevation extends from the midfoot region to the hindfoot region , and a second elevation in the region of an outer foot side , and the elevations are arranged so as to be offset relative to one another in the longitudinal extension of the main body , and the second elevation is substantially rectangular, round, semicircular, trapezoidal or elliptical and is designed to increase in the direction of an outer foot side edge, and the fourth and fifth metatarsal bones of a foot that can be arranged in this region can be raised as a result, such that a pressure which, without the elevation, would only act on a portion of the forefoot region, in particular the inner foot region, can be at least partially absorbed by the outer edge region of the foot, wherein at least one additional third elevation is arranged in the midfoot region .
A method comprising: obtaining eye images of a wearer of a head mounted display captured by an image capture device ; determining biometric information of the wearer based at least in part on the eye images, wherein the biometric information is associated with physiological or behavioral characteristics of the wearer; presenting, via a display , a user interface comprising a consent request that includes a plurality of consent categories for the biometric information, wherein the plurality of consent categories includes a first consent category and a second consent category; receiving, via the user interface, a response to the consent request, wherein the response includes a consent indication from the wearer; in response to a determination that the consent indication indicates that the wearer has not agreed to the first consent category, suppressing transmission of biometric information that is associated with the first consent category; and in response to a determination that the consent indication indicates that the wearer has agreed to the second consent category, transmitting, to an acquirer device, the biometric information that is associated with the second consent category. obtaining eye images of a wearer of a head mounted display captured by an image capture device ; determining biometric information of the wearer based at least in part on the eye images, wherein the biometric information is associated with physiological or behavioral characteristics of the wearer; presenting, via a display , a user interface comprising a consent request that includes a plurality of consent categories for the biometric information, wherein the plurality of consent categories includes a first consent category and a second consent category; receiving, via the user interface, a response to the consent request, wherein the response includes a consent indication from the wearer; in response to a determination that the consent indication indicates that the wearer has not agreed to the first consent category, suppressing transmission of biometric information that is associated with the first consent category; and in response to a determination that the consent indication indicates that the wearer has agreed to the second consent category, transmitting, to an acquirer device, the biometric information that is associated with the second consent category.
A ventilator apparatus comprising: a ventilator body ; a case to house therein the ventilator body; a first unit housed in the case; a second unit housed in the case; and a lead interconnecting the first unit and the second unit, wherein the first unit includes a unit case defining a housing , a functional unit housed in the unit case to perform a function of the first unit, and a protection wall to protect the lead drawn from the functional unit to an outside of the one lateral face, the ventilator apparatus being characterized by the protection wall being disposed outside one lateral face of the unit case in a spaced relationship with the one lateral face, a first upper lead-holding fastener part to press and secure the lead from a first direction, the first upper lead-holding fastener part being disposed between the one lateral face and the protection wall, and a second lower lead-holding fastener part to press and secure the lead from a second direction opposite to the first direction, the second lower lead-holding fastener part being disposed between the one lateral face and the protection wall. a ventilator body ; a case to house therein the ventilator body; a first unit housed in the case; a second unit housed in the case; and a lead interconnecting the first unit and the second unit, wherein the first unit includes a unit case defining a housing , a functional unit housed in the unit case to perform a function of the first unit, and a protection wall to protect the lead drawn from the functional unit to an outside of the one lateral face, a unit case defining a housing , a functional unit housed in the unit case to perform a function of the first unit, and a protection wall to protect the lead drawn from the functional unit to an outside of the one lateral face, the ventilator apparatus being characterized by the protection wall being disposed outside one lateral face of the unit case in a spaced relationship with the one lateral face, a first upper lead-holding fastener part to press and secure the lead from a first direction, the first upper lead-holding fastener part being disposed between the one lateral face and the protection wall, and a second lower lead-holding fastener part to press and secure the lead from a second direction opposite to the first direction, the second lower lead-holding fastener part being disposed between the one lateral face and the protection wall.
A system, comprising: a digital camera configured to capture image frames in a continuous mode or a periodic capture mode; a machine-learned regression network executing on the digital camera; wherein the machine-learned regression network is generated as a pre-trained network, PTN by pre-training a deep convolution network by applying supervised machine learning to a set of training images and corresponding camera exposure data to mimic an exposure control system of a camera type used to capture the set of training images; wherein a machine-learned reward network RN is generated by training a deep convolution network on human scored image sets and corresponding camera exposure data to emulate human perception with respect to gauging image exposure quality as a function of exposure settings and semantics associated with those scored image sets; wherein the machine-learned regression network is a contextual-bandit network, CBN, the CBN being generated by refining PTN via the RN by contextual-bandit learning; and wherein regression network automatically predicts optimized camera exposure values from a current image frame captured by the digital camera as an implicit function of scene semantics extracted from the current image frame; and wherein the digital camera is configured to apply the predicted camera exposure values to capture a next image frame. a digital camera configured to capture image frames in a continuous mode or a periodic capture mode; a machine-learned regression network executing on the digital camera; wherein the machine-learned regression network is generated as a pre-trained network, PTN by pre-training a deep convolution network by applying supervised machine learning to a set of training images and corresponding camera exposure data to mimic an exposure control system of a camera type used to capture the set of training images; wherein a machine-learned reward network RN is generated by training a deep convolution network on human scored image sets and corresponding camera exposure data to emulate human perception with respect to gauging image exposure quality as a function of exposure settings and semantics associated with those scored image sets; wherein the machine-learned regression network is a contextual-bandit network, CBN, the CBN being generated by refining PTN via the RN by contextual-bandit learning; and wherein regression network automatically predicts optimized camera exposure values from a current image frame captured by the digital camera as an implicit function of scene semantics extracted from the current image frame; and wherein the digital camera is configured to apply the predicted camera exposure values to capture a next image frame.
Electrically actuated friction brake with a brake pad actuated by an actuation device , wherein for braking the actuation device is driven by a spring and is held open by an electrical actuator , so that the spring actuates the friction brake in case of a power loss, wherein a first transmission element , that is connected to the brake pad , and a second transmission element with an elevation curve are provided and a coupling element is provided on the first transmission element , wherein a follower element is arranged on the coupling element that interacts with the elevation curve and the springs acts on the actuation device , characterized in that the spring rotates the second transmission element with the elevation curve , so that the follower element follows the elevation curve under the action of the spring for actuating the first transmission element .
Electromagnetic pulse welding coil comprising two conducting regions , wherein the first region is capable of producing a higher current density than the second region which is assigned to a remainder of the coil , wherein pulse welding coil is planar in design, in particular is cut out of a metal plate, characterised in that the first region capable of producing a higher current density is detachably connected to the remainder of the coil .
Method for adjusting a pull line between a tractor and an agricultural ground processing apparatus which is pulled or carried by the tractor , in particular a plow, characterized by the steps of: - detecting the alignment of one or more connecting pieces of a coupling device of the tractor ; and - automatically adjusting the alignment of a plurality of guide elements (22, 22a-22f) of the agricultural ground processing apparatus that are in contact with the ground to be processed relative to a support frame of the agricultural ground processing apparatus depending on the detected alignment of the one or more connecting pieces of the coupling device of the tractor . - detecting the alignment of one or more connecting pieces of a coupling device of the tractor ; and - automatically adjusting the alignment of a plurality of guide elements (22, 22a-22f) of the agricultural ground processing apparatus that are in contact with the ground to be processed relative to a support frame of the agricultural ground processing apparatus depending on the detected alignment of the one or more connecting pieces of the coupling device of the tractor .
A reluctance motor for a compressor , the motor comprising: a rotor having a rotor core that has an annular outer circumference about an axis (C1), having a plurality of magnetic poles along the outer circumference , and having no permanent magnet; and a stator having a stator core that surrounds the rotor from an outer side in a radial direction about the axis (C1) and a winding wound around the stator core in wave winding, wherein each of the plurality of magnetic poles has a first slit formed in the rotor core and a second slit formed on an inner side of the first slit in the radial direction, and wherein a cutout part is provided on an outer circumference of the stator core , the cutout part constituting a refrigerant passage through which refrigerant passes in a direction of the axis (C1), wherein the rotor core has a shaft hole formed at a center in the radial direction, characterized in that the rotor core has groove parts each of which extends in the radial direction from the shaft hole toward a center of the second slit in a circumferential direction about the axis (C1), the rotor core further has a crimping part between two of the second slits adjacent to each other, and a through hole between two of the groove parts adjacent to each other, the number of the groove parts is equal to the number of the plurality of magnetic poles, the groove parts constitute refrigerant passages through which refrigerant is able to pass, and the through hole is a rivet hole or a through hole through which refrigerant is able to pass in the axial direction. a rotor having a rotor core that has an annular outer circumference about an axis (C1), having a plurality of magnetic poles along the outer circumference , and having no permanent magnet; and a stator having a stator core that surrounds the rotor from an outer side in a radial direction about the axis (C1) and a winding wound around the stator core in wave winding, wherein each of the plurality of magnetic poles has a first slit formed in the rotor core and a second slit formed on an inner side of the first slit in the radial direction, and wherein a cutout part is provided on an outer circumference of the stator core , the cutout part constituting a refrigerant passage through which refrigerant passes in a direction of the axis (C1), wherein the rotor core has a shaft hole formed at a center in the radial direction, characterized in that the rotor core has groove parts each of which extends in the radial direction from the shaft hole toward a center of the second slit in a circumferential direction about the axis (C1), the rotor core further has a crimping part between two of the second slits adjacent to each other, and a through hole between two of the groove parts adjacent to each other, the number of the groove parts is equal to the number of the plurality of magnetic poles, the groove parts constitute refrigerant passages through which refrigerant is able to pass, and the through hole is a rivet hole or a through hole through which refrigerant is able to pass in the axial direction.
An electronics package comprising: a lead frame ; a wide band-gap semiconductor device mounted on the lead frame via a die attach material ; an over-mold molded around the lead frame and the wide band-gap semiconductor device, characterized in that the over-mold has a glass transition temperature greater than 135°C, a flexural modulus less than about 20 GPa, a coefficient of thermal expansion below about 50 ppm/°C at temperatures above the glass transition temperature and a coefficient of thermal expansion below about 18 ppm/°C at temperatures below the glass transition temperature, and a moisture absorption rate less than about 0.5%. a lead frame ; a wide band-gap semiconductor device mounted on the lead frame via a die attach material ; an over-mold molded around the lead frame and the wide band-gap semiconductor device, characterized in that the over-mold has a glass transition temperature greater than 135°C, a flexural modulus less than about 20 GPa, a coefficient of thermal expansion below about 50 ppm/°C at temperatures above the glass transition temperature and a coefficient of thermal expansion below about 18 ppm/°C at temperatures below the glass transition temperature, and a moisture absorption rate less than about 0.5%.
A method in a User Equipment, UE, for wireless communications, comprising: receiving M configuration information blocks via an air interface prior to transmitting a first radio signal (S202, S502), the M configuration information blocks respectively indicating M reference signals; receiving the M reference signals (S21, S51); transmitting the first radio signal (S22, S52), the first radio signal indicating a first reference signal out of the M reference signals; and monitoring a first signaling in each time-frequency resource block of W time-frequency resource block(s) (S23, S53); wherein measurements on the M reference signals are used to determine the first reference signal; at least one reference signal of the M reference signals is transmitted by a first serving cell, and the first serving cell is not added by the UE; the UE assumes that a transmission antenna port of the first signaling is Quasi-Co-Located with a transmission antenna port of the first reference signal; W is a positive integer, and M is a positive integer greater than 1; CRC of the first signaling is scrambled by a C-RNTI; the first radio signal is transmitted on a second serving cell, and the second serving cell is added by the UE; the first serving cell is not a PCell of the UE; the meaning of the phrase that the first serving cell is not added by the UE includes that the UE is not assigned an SCellIndex nor a ServCellIndex for the first serving cell; the meaning of the phrase that the second serving cell is added by the UE includes that the UE is assigned an SCellIndex or a ServCellIndex for the second serving cell. receiving M configuration information blocks via an air interface prior to transmitting a first radio signal (S202, S502), the M configuration information blocks respectively indicating M reference signals; receiving the M reference signals (S21, S51); transmitting the first radio signal (S22, S52), the first radio signal indicating a first reference signal out of the M reference signals; and monitoring a first signaling in each time-frequency resource block of W time-frequency resource block(s) (S23, S53); wherein measurements on the M reference signals are used to determine the first reference signal; at least one reference signal of the M reference signals is transmitted by a first serving cell, and the first serving cell is not added by the UE; the UE assumes that a transmission antenna port of the first signaling is Quasi-Co-Located with a transmission antenna port of the first reference signal; W is a positive integer, and M is a positive integer greater than 1; CRC of the first signaling is scrambled by a C-RNTI; the first radio signal is transmitted on a second serving cell, and the second serving cell is added by the UE; the first serving cell is not a PCell of the UE; the meaning of the phrase that the first serving cell is not added by the UE includes that the UE is not assigned an SCellIndex nor a ServCellIndex for the first serving cell; the meaning of the phrase that the second serving cell is added by the UE includes that the UE is assigned an SCellIndex or a ServCellIndex for the second serving cell.