mhurhangee/patent-ind-claim-en huggingface dataset:
Device for an optical sensor for a motor vehicle , said optical sensor comprising an optic , - a housing that is mounted so as to be able to rotate around an axis of rotation (A1) and that has a compartment that is configured to accommodate the optical sensor ; - an optical element that is securely fastened to the housing , the optical element having at least one planar surface that is configured to be placed in the field of view of the optical sensor , and the position of the optical element defined the front of the housing ; and - an actuator that is coupled to the housing in order to drive the housing and the optical element to rotate, the device characterized in that the actuator is arranged at the rear of the housing . - a housing that is mounted so as to be able to rotate around an axis of rotation (A1) and that has a compartment that is configured to accommodate the optical sensor ; - an optical element that is securely fastened to the housing , the optical element having at least one planar surface that is configured to be placed in the field of view of the optical sensor , and the position of the optical element defined the front of the housing ; and - an actuator that is coupled to the housing in order to drive the housing and the optical element to rotate,
Apparatus for mounting a component in a gas turbine engine , the apparatus comprising: a fan casing for a gas turbine engine , the fan casing comprising a composite material and including a flange and a body ; a first connector to connect the component of the gas turbine engine to the fan casing at a first location adjacent to the flange ; a second connector to connect the component of the gas turbine engine to the fan casing at a second location adjacent to the flange ; and a first bracket connected to the body and to the flange of the fan casing , the first connector being connected to the flange and to the body of the fan casing via the first bracket . a fan casing for a gas turbine engine , the fan casing comprising a composite material and including a flange and a body ; a first connector to connect the component of the gas turbine engine to the fan casing at a first location adjacent to the flange ; a second connector to connect the component of the gas turbine engine to the fan casing at a second location adjacent to the flange ; and a first bracket connected to the body and to the flange of the fan casing , the first connector being connected to the flange and to the body of the fan casing via the first bracket .
A reusable urinary catheter product, comprising: an intermittent catheter comprising a catheter shaft, wherein the catheter shaft comprises polymer that defines a substrate; a coating disposed on a surface of the substrate, the coating comprising a cross-linked lubricious hydrophilic polymer including a matrix; and photoactive titanium dioxide contained within the matrix of the cross-linked lubricious hydrophilic polymer. an intermittent catheter comprising a catheter shaft, wherein the catheter shaft comprises polymer that defines a substrate; a coating disposed on a surface of the substrate, the coating comprising a cross-linked lubricious hydrophilic polymer including a matrix; and photoactive titanium dioxide contained within the matrix of the cross-linked lubricious hydrophilic polymer.
A server , comprising: a plurality of a game emulator units ; a composite image generating unit ; a video transmitting unit that transmits a video to a video receiving device ; and a data receiving unit configured to receive from the video receiving device information indicating a first user's input, wherein the composite image generating unit generates a composite image of a plurality of game screens generated by respective ones of the game emulator units, including a game emulator unit of the first user; the game emulator unit of the first user executes an update of game situation data in a manner that reflects the first user's input; and wherein the video transmitting unit transmits, to the video receiving device, the composite image. a plurality of a game emulator units ; a composite image generating unit ; a video transmitting unit that transmits a video to a video receiving device ; and a data receiving unit configured to receive from the video receiving device information indicating a first user's input, wherein the composite image generating unit generates a composite image of a plurality of game screens generated by respective ones of the game emulator units, including a game emulator unit of the first user; the game emulator unit of the first user executes an update of game situation data in a manner that reflects the first user's input; and wherein the video transmitting unit transmits, to the video receiving device, the composite image.
A remote control for a radiographic source , the remote control comprising: a forward cable section configured to: extend into and through a radiographic source housing , to expose a radiographic source to an exterior of the housing , and to retract into and through the radiographic source housing to retract the radiographic source into the radiographic housing ; a drive cable section coupled to the forward cable section ; a cable connector configured to mechanically couple the forward cable section to the drive cable section ; and a drive gear configured to extend the forward cable section by driving the drive cable section in a first direction, and to retract the forward cable section by driving the drive cable section in a second direction, wherein the forward cable section has a smooth exterior surface to have a lower friction than the drive cable section while traversing the radiographic source housing . a forward cable section configured to: extend into and through a radiographic source housing , to expose a radiographic source to an exterior of the housing , and to retract into and through the radiographic source housing to retract the radiographic source into the radiographic housing ; a drive cable section coupled to the forward cable section ; a cable connector configured to mechanically couple the forward cable section to the drive cable section ; and a drive gear configured to extend the forward cable section by driving the drive cable section in a first direction, and to retract the forward cable section by driving the drive cable section in a second direction, wherein the forward cable section has a smooth exterior surface to have a lower friction than the drive cable section while traversing the radiographic source housing .
A vane pump including a housing having a pump chamber (C), a rotor having a cylindrical peripheral wall portion accommodated in the pump chamber (C) and having a pair of vane holding grooves facing each other in a diameter direction, and an oil chamber (A) defined inside the peripheral wall portion to store lubricating oil (O), and a vane that is held in the pair of vane holding grooves and moves across the oil chamber (A) in the diameter direction, wherein at least one of an inner surface of the housing and an end face of the peripheral wall portion , which together with the inner surface defines a sliding interface (B), has an oil groove for the lubricating oil (O), characterized in that the oil groove extends only in a circumferential direction.
Device for drying material to be dried , comprising a ventilation box for receiving the material to be dried , wherein the ventilation box is covered with a roof , the device further comprising at least one fan , by means of which fan air can be sucked in, wherein the aspirated air can be supplied at least partially to an air dehumidifier in order to dehumidify the air, and wherein by means of the at least one fan the air can finally be blown through the ventilation box from an initial region to an end region of the ventilation box , wherein the material to be dried can be arranged between the initial region and the end region on a box surface which can be approached by the air flow, wherein a switching flap is provided, which is movable from a first position to a second position , wherein in the first position the air can be sucked in by the at least one fan only from the ventilation box to form a closed air circuit in the device, and wherein in the second position the air can be at least partially sucked in from outside the ventilation box , wherein an air duct is provided under the roof in order to guide the air that can be sucked in in the second position from outside the ventilation box along under the roof and to enable heat transfer between the roof and the air, wherein the air dehumidifier has an evaporator and a condenser , wherein the air supplied to the air dehumidifier can be guided at least partially, preferably completely, through the evaporator , characterized in that a heat source is arranged between evaporator and condenser in order to additionally heat the air which has passed through the evaporator , and in that a sensor for measuring the speed of the aspirated air is provided which is arranged in the air dehumidifier behind the evaporator , and in that means are provided for measuring an outside temperature of the air which can be sucked in from outside the ventilation box and/or an inside temperature of the air located in the ventilation box .
An illumination device comprising: a plurality of LEDs arranged on a carrier around a center thereof; an optical element disposed in a path of light emitted by at least one of said LEDs, an optical axis extending through said center and said optical element; and a driving unit for operating at least one of said LEDs, the driving unit in a first operation mode is configured to drive at a selected power P1 a first selection of LEDs L1 to issue a first beam with a first device light flux F1 and with a first beam width, and is configured to drive in an at least one further operation mode at a further selected power Pf a further selection of LEDs Lf, different in at least one LED from said first selection, to issue a further beam with a further device light flux, with 0.5*F1 <= Ff <= 1.5*F1, preferably with 0.8 ∗ F1 <= Ff <= 1.2 ∗ F1, and with a further beam width wider than the first beam width, wherein the LEDs Lf of the further selection of the LEDs are evenly distributed over the carrier in that shortest distances between each two neighboring LEDs of the LEDs Lf that are driven differ at the most by a factor three, characterised in that the first selection of LEDs has a first number N1 of LEDs and that the further selection of LEDs has a further number Nf of LEDs, wherein N1 is in the range of Nf ± 20%. a plurality of LEDs arranged on a carrier around a center thereof; an optical element disposed in a path of light emitted by at least one of said LEDs, an optical axis extending through said center and said optical element; and a driving unit for operating at least one of said LEDs, the driving unit in a first operation mode is configured to drive at a selected power P1 a first selection of LEDs L1 to issue a first beam with a first device light flux F1 and with a first beam width, and is configured to drive in an at least one further operation mode at a further selected power Pf a further selection of LEDs Lf, different in at least one LED from said first selection, to issue a further beam with a further device light flux, with 0.5*F1 <= Ff <= 1.5*F1, preferably with 0.8 ∗ F1 <= Ff <= 1.2 ∗ F1, and with a further beam width wider than the first beam width, wherein the LEDs Lf of the further selection of the LEDs are evenly distributed over the carrier in that shortest distances between each two neighboring LEDs of the LEDs Lf that are driven differ at the most by a factor three, characterised in that the first selection of LEDs has a first number N1 of LEDs and that the further selection of LEDs has a further number Nf of LEDs, wherein N1 is in the range of Nf ± 20%.
Shoe sole comprising a stability support plate and a soft-elastic midsole having a forefoot area (VFB), a midfoot area (MFB) and a heel area (FB), wherein the stability support plate is peripherally surrounded by the midsole and wherein the midsole comprises a clear space being open towards the bottom side (U) of the midsole , which is peripherally surrounded substantially completely by the midsole and which is delimited by the stability support plate , and wherein the clear space extends from the heel area (FB) via the midfoot area (MFB) into the forefoot area (VFB) of the midsole , characterized in that the midsole has a plurality of channels being configured as blind holes which are open towards the clear space and extend towards the outer side of the midsole .
A terminal device comprising telecommunications transceiver circuitry configured to transmit data to and receive data from a communication node in a telecommunications network and controller circuitry configured to control the transceiver circuitry, the controller circuitry being configured to: determine the speed of movement of the terminal device; measure a downlink channel quality; and control the transceiver circuitry to transmit an uplink reference signal that allows the communication node to determine the channel quality between the communication node and the terminal device, wherein the controller circuitry is configured to determine a rate of transmission of the uplink reference signal in accordance with the speed of movement of the terminal device and the measured downlink channel quality. determine the speed of movement of the terminal device; measure a downlink channel quality; and control the transceiver circuitry to transmit an uplink reference signal that allows the communication node to determine the channel quality between the communication node and the terminal device, wherein the controller circuitry is configured to determine a rate of transmission of the uplink reference signal in accordance with the speed of movement of the terminal device and the measured downlink channel quality.
A managed device, comprising: a processor and a memory communicatively connected to the processor, the processor configured to: communicate with a management device; send toward the management device, the raw or compressed management plane performance data; receive quality-of-monitoring, QoM, classification model information; determine based on raw management plane performance data at the managed device and the QoM classification model information, a local QoM classification model comprising a set of local QoM classification model parameters; perform based on the local QoM classification model and a QoM compression function, compression of raw management plane performance data to provide compressed management plane performance data; and send toward the management device, the compressed management plane performance data. communicate with a management device; send toward the management device, the raw or compressed management plane performance data; receive quality-of-monitoring, QoM, classification model information; determine based on raw management plane performance data at the managed device and the QoM classification model information, a local QoM classification model comprising a set of local QoM classification model parameters; perform based on the local QoM classification model and a QoM compression function, compression of raw management plane performance data to provide compressed management plane performance data; and send toward the management device, the compressed management plane performance data.
Mechanical timepiece movement with power reserve indication, comprising at least one barrel system with a winding output connected to a winding wheel, which is a chassis wheel , and with an unwinding output connected to an unwinding wheel, which is a crown and a differential gear comprising the chassis wheel and the crown. the differential gear being connected to a power reserve indicator to display the power reserve, characterized in that it includes at least one locking member disposed on the crown and at least one locking element disposed on the chassis wheel , during the rotation of the crown relative to the chassis wheel, the locking member being intended to come into contact with the locking element, when the power reserve is at zero in order to stop the timepiece movement. the differential gear being connected to a power reserve indicator to display the power reserve, characterized in that it includes at least one locking member disposed on the crown and at least one locking element disposed on the chassis wheel , during the rotation of the crown relative to the chassis wheel, the locking member being intended to come into contact with the locking element, when the power reserve is at zero in order to stop the timepiece movement.
A litter box comprising a body made of at least one flexible elastomeric material, the body having a wall defining a cavity with a top open end, the wall having a first minimum height of 20,32 cm (8.0 inches) or less on a first side, the wall having a second minimum height of 25,4 cm (10.0 inches) or more on a second side opposite the first side, handles being provided on opposite sides located between the first side and the second side.
A laser level , comprising: a housing ; a laser module assembly , the laser module assembly at least partially housed in the housing, the laser module assembly including a laser module ; wherein the laser module includes a laser generator , a hollow transparent member and a cone member , the laser generator configured to generate a laser beam which is directed towards the cone member and wherein the cone member is configured to reflect the laser beam to project a laser line; wherein the hollow transparent member has a generally cylindrical shape; wherein the cone member includes a cone section including a reflecting surface and the cone section is located inside the hollow transparent member ; characterized in that the cone member further includes a connection portion which wraps around an end of the hollow transparent member , the connection portion including a flange which is located outside the external circumference of the hollow transparent member, adjacent to an outer circumferential surface of the hollow transparent member. a housing ; a laser module assembly , the laser module assembly at least partially housed in the housing, the laser module assembly including a laser module ; wherein the laser module includes a laser generator , a hollow transparent member and a cone member , the laser generator configured to generate a laser beam which is directed towards the cone member and wherein the cone member is configured to reflect the laser beam to project a laser line; wherein the hollow transparent member has a generally cylindrical shape; wherein the cone member includes a cone section including a reflecting surface and the cone section is located inside the hollow transparent member ; characterized in that the cone member further includes a connection portion which wraps around an end of the hollow transparent member , the connection portion including a flange which is located outside the external circumference of the hollow transparent member, adjacent to an outer circumferential surface of the hollow transparent member.
A clamping apparatus for connecting flanges of tubes, comprising: a first bracing device ; a second bracing device ; wherein the first bracing device connects a first mounting device and a second mounting device ; wherein the first bracing device has a partially circular shape with a first inner wall and a first outer wall ; wherein the second bracing device connects a first connecting device and a second connecting device ; wherein the first inner wall of the first bracing device has a first recess ; wherein the first outer wall of the first bracing device is adapted to contact the second bracing device ; wherein the second bracing device is adapted to contact the first outer wall of the first bracing device in order to apply a substantially radial force on the first outer wall of the first bracing device ; wherein the shape of the first recess is adapted to substantially convert the substantially radial force applied to the first outer wall of the first bracing device into an axial force inside the first inner wall ; wherein the first mounting device and the second mounting device each comprise at least two attachment devices for connecting the first connecting device and the second connecting device of the second bracing device . a first bracing device ; a second bracing device ; wherein the first bracing device connects a first mounting device and a second mounting device ; wherein the first bracing device has a partially circular shape with a first inner wall and a first outer wall ; wherein the second bracing device connects a first connecting device and a second connecting device ; wherein the first inner wall of the first bracing device has a first recess ; wherein the first outer wall of the first bracing device is adapted to contact the second bracing device ; wherein the second bracing device is adapted to contact the first outer wall of the first bracing device in order to apply a substantially radial force on the first outer wall of the first bracing device ; wherein the shape of the first recess is adapted to substantially convert the substantially radial force applied to the first outer wall of the first bracing device into an axial force inside the first inner wall ; wherein the first mounting device and the second mounting device each comprise at least two attachment devices for connecting the first connecting device and the second connecting device of the second bracing device .