mhurhangee/patent-ind-claim-en huggingface dataset:
Gearing comprising a superposition gearing device, in particular a differential gearing device, torque flows being able to be merged by means of the superposition gearing device via two driving shafts of the gearing, a first of the driving shafts driving a central gear , in particular a sun gear , of a planetary gear train , the first driving shaft being mounted freely by being - mounted in a first axial region on ring gears of the superposition gearing device - and mounted in a second axial region on an output shaft of a driving apparatus , in particular on an output shaft of a motor (M2), in particular an electric motor, by means of a shaft coupling , characterised in that the gearing has a compensation mechanism, the shaft coupling being formed having axial securing by means of coupling teeth or a folded seam connection, the first driving shaft being axially supported against a cambered end face of the output shaft of the driving apparatus , and simultaneously being secured axially by means of a support ring screwed onto the output shaft of the driving apparatus , or the first driving shaft being axially supported against an idler gear by means of a fishplate screwed on frontally, and being axially secured by means of an axial-securing screw of the fishplate , and one part of the compensation mechanism having anti-friction bearings, which are equipped with two rows of barrel roller bearings having axial mobility provided by an operational play between the bearings. - mounted in a first axial region on ring gears of the superposition gearing device - and mounted in a second axial region on an output shaft of a driving apparatus , in particular on an output shaft of a motor (M2), in particular an electric motor, by means of a shaft coupling ,
A drive roller comprising: • a central hub ; • a body extending around the central hub; • a deformable band extending around the body over a circumference of the drive roller ; characterized in that the body is made of a deformable material, and in that the drive roller comprises first rigid fins and second rigid fins arranged in alternation and extending radially inside the body between the central hub and the deformable band, the first fins presenting a proximal end fastened to the central hub and the second fins presenting a distal end that extends in the proximity of the deformable band. • a central hub ; • a body extending around the central hub; • a deformable band extending around the body over a circumference of the drive roller ; characterized in that the body is made of a deformable material, and in that the drive roller comprises first rigid fins and second rigid fins arranged in alternation and extending radially inside the body between the central hub and the deformable band, the first fins presenting a proximal end fastened to the central hub and the second fins presenting a distal end that extends in the proximity of the deformable band.
A mobile terminal, comprising: a fingerprint identification module and a terminal screen ; the terminal screen comprising a display area and a non-display area located at an end of the display area , the display area having a display surface , and the non-display area having a driving circuit; the fingerprint identification module being adjacent to the non-display area relative to the display area , a forward projection, on a plane where the display surface is located, of the fingerprint identification module being at least partially overlapped with a forward projection, on the plane where the display surface is located, of the non-display area ; a cover plate glass located at an outer side of the terminal screen ; the cover plate glass defining a module accommodation hole configured to accommodate the fingerprint identification module ; a ring body provided between the fingerprint identification module and the cover plate glass and fixed to the cover plate glass and the fingerprint identification module separately by glue; an upper cover arranged opposite to the terminal screen and located at an inner side of the terminal screen ; the upper cover being fixed to the cover plate glass by glue, wherein a bottom of the ring body is fixed to the upper cover by glue, wherein the bottom of the ring body has a sunk stage , and a bottom and a side of the sunk stage are fixed to the upper cover separately by dispensing glue. a fingerprint identification module and a terminal screen ; the terminal screen comprising a display area and a non-display area located at an end of the display area , the display area having a display surface , and the non-display area having a driving circuit; the fingerprint identification module being adjacent to the non-display area relative to the display area , a forward projection, on a plane where the display surface is located, of the fingerprint identification module being at least partially overlapped with a forward projection, on the plane where the display surface is located, of the non-display area ; a cover plate glass located at an outer side of the terminal screen ; the cover plate glass defining a module accommodation hole configured to accommodate the fingerprint identification module ; a ring body provided between the fingerprint identification module and the cover plate glass and fixed to the cover plate glass and the fingerprint identification module separately by glue; an upper cover arranged opposite to the terminal screen and located at an inner side of the terminal screen ; the upper cover being fixed to the cover plate glass by glue, wherein a bottom of the ring body is fixed to the upper cover by glue, wherein the bottom of the ring body has a sunk stage , and a bottom and a side of the sunk stage are fixed to the upper cover separately by dispensing glue.
A method, performed by a terminal in a wireless communication system, the method comprising: creating a first instance for a general reception control operation, in case that a mission critical, MC, video call is established; and entering a reception controller state, receiving a media transmission notification message from a transmission control server , indicating that a media reception is available from at least one of a plurality of MC devices ; storing a user ID and a synchronization source, SSRC, of the MC device transmitting a media; receiving a user input indication to request permission to receive the media; transmitting a media reception request message to the transmission control server ; creating a second instance for a basic reception control operation; mapping the User ID and the SSRC of the MC device transmitting the media with the second instance; and remaining in the reception controller state, wherein the terminal in the reception controller state handles an incoming media transmission notification, media transmission end notification, and a MC video user's request to receive media transmission. creating a first instance for a general reception control operation, in case that a mission critical, MC, video call is established; and entering a reception controller state, receiving a media transmission notification message from a transmission control server , indicating that a media reception is available from at least one of a plurality of MC devices ; storing a user ID and a synchronization source, SSRC, of the MC device transmitting a media; receiving a user input indication to request permission to receive the media; transmitting a media reception request message to the transmission control server ; creating a second instance for a basic reception control operation; mapping the User ID and the SSRC of the MC device transmitting the media with the second instance; and remaining in the reception controller state, wherein the terminal in the reception controller state handles an incoming media transmission notification, media transmission end notification, and a MC video user's request to receive media transmission.
An on-site vehicle comprising: - a mobile chassis movable over the surface of the ground, the chassis including two parallel side rails extending parallel to a longitudinal direction (A-A) of the vehicle ; and - a lifting arm extending parallel to the longitudinal direction (A-A) of the vehicle , the lifting arm being articulated to the two side rails between the two side rails so as to be mobile in pivoting relative to the two side rails about a pivot axis (P) extending perpendicularly to the longitudinal direction (A-A) of the vehicle, - at least two battery elements ; and - at least one electric motor for the propulsion of the chassis and for the actuation of the lifting arm , the battery elements being electrically connected to said at least one electric motor to supply power to said at least one electric motor; the on-site vehicle being characterized in that the battery elements are disposed between the two side rails below the lifting arm . - a mobile chassis movable over the surface of the ground, the chassis including two parallel side rails extending parallel to a longitudinal direction (A-A) of the vehicle ; and - a lifting arm extending parallel to the longitudinal direction (A-A) of the vehicle , the lifting arm being articulated to the two side rails between the two side rails so as to be mobile in pivoting relative to the two side rails about a pivot axis (P) extending perpendicularly to the longitudinal direction (A-A) of the vehicle, - at least two battery elements ; and - at least one electric motor for the propulsion of the chassis and for the actuation of the lifting arm , the battery elements being electrically connected to said at least one electric motor to supply power to said at least one electric motor;
A liquid ejecting head comprising: a plurality of nozzles that discharge a liquid in a first axis direction (Z); first and second common liquid chambers that communicate in common with the plurality of nozzles; and an individual flow path that is provided for each of the nozzles, couples the first common liquid chamber to the second common liquid chamber, and communicates with the nozzle between the first common liquid chamber and the second common liquid chamber, wherein each individual flow path includes a pressure chamber provided with an energy generation element , and an individual communication flow path coupling the pressure chamber to the first and second common liquid chambers, Wherein a plurality of the pressure chambers are arranged side by side in a second axis direction (X) orthogonal to the first axis direction (Z) to form first and second pressure chamber rows , and the first pressure chamber row and the second pressure chamber row are disposed to be shifted relative to each other in a third axis direction (Y) orthogonal to the first axis direction (Z) and the second axis direction (X) when viewed in the second axis direction (X), and the individual communication flow path corresponding to the first pressure chamber row has a portion overlapping a region between the adjacent pressure chambers of the second pressure chamber row when viewed in the first axis direction (Z), characterised by the portion not overlapping the second pressure chamber row when viewed in the second axis direction (X). a plurality of nozzles that discharge a liquid in a first axis direction (Z); first and second common liquid chambers that communicate in common with the plurality of nozzles; and an individual flow path that is provided for each of the nozzles, couples the first common liquid chamber to the second common liquid chamber, and communicates with the nozzle between the first common liquid chamber and the second common liquid chamber, wherein each individual flow path includes a pressure chamber provided with an energy generation element , and an individual communication flow path coupling the pressure chamber to the first and second common liquid chambers, Wherein a plurality of the pressure chambers are arranged side by side in a second axis direction (X) orthogonal to the first axis direction (Z) to form first and second pressure chamber rows , and the first pressure chamber row and the second pressure chamber row are disposed to be shifted relative to each other in a third axis direction (Y) orthogonal to the first axis direction (Z) and the second axis direction (X) when viewed in the second axis direction (X), and the individual communication flow path corresponding to the first pressure chamber row has a portion overlapping a region between the adjacent pressure chambers of the second pressure chamber row when viewed in the first axis direction (Z), characterised by the portion not overlapping the second pressure chamber row when viewed in the second axis direction (X).
Method for controlling a signal envelope shape of modulation pulses in a driver (TX_DR) of a wireless transmitter (TX), including: - supplying a first voltage (VDD_RF) to the driver during a non-modulated state, - supplying a second voltage (VDD_ASK) configurable by a configurable modulation index value (IMS) to the driver during a modulated state, and - switching between the non-modulated state (MOD_RF) and the modulated state (MOD_ASK), said switching comprising setting the modulation index value (IMS) such that the second voltage level (VDD_ASK) is configured at the same level as the first voltage (VDD_RF), and then switching between supplying the first voltage (VDD_RF) to the driver and supplying the second voltage (VDD_ASK) to the driver, and - filtering to a limited bandwidth the variations of the second voltage (VDD_ASK) resulting from configuring the modulation index value (IMS). - supplying a first voltage (VDD_RF) to the driver during a non-modulated state, - supplying a second voltage (VDD_ASK) configurable by a configurable modulation index value (IMS) to the driver during a modulated state, and - switching between the non-modulated state (MOD_RF) and the modulated state (MOD_ASK), said switching comprising setting the modulation index value (IMS) such that the second voltage level (VDD_ASK) is configured at the same level as the first voltage (VDD_RF), and then switching between supplying the first voltage (VDD_RF) to the driver and supplying the second voltage (VDD_ASK) to the driver, and - filtering to a limited bandwidth the variations of the second voltage (VDD_ASK) resulting from configuring the modulation index value (IMS).
System for flushing a drinking water installation, comprising - at least one riser or distribution pipe (SVL), - a plurality of branch pipes (ZL) connected to the riser or distribution pipe (SVL), - consumers (V) and flushing stations (SS) connected to the branch pipes (ZL), - wherein the flushing stations (SS) have measuring means (MM) for the temperature change in the branch pipe (ZL) or the throughflow through the branch pipe (ZL), and/or measuring devices (MM) are provided for the temperature change or the throughflow, - a control unit (SE) which is connected to the measuring devices (MM) by means of data cables or by radio, - wherein the control unit (SE) has an evaluation module (AM) for the data transmitted by the measuring devices (MM), characterized in that the evaluation module is set up to determine, on the basis of the transmitted data, which flushing stations (SS) need to be flushed simultaneously in order for the riser or distribution pipe (SVL) to be flushed. - at least one riser or distribution pipe (SVL), - a plurality of branch pipes (ZL) connected to the riser or distribution pipe (SVL), - consumers (V) and flushing stations (SS) connected to the branch pipes (ZL), - wherein the flushing stations (SS) have measuring means (MM) for the temperature change in the branch pipe (ZL) or the throughflow through the branch pipe (ZL), and/or measuring devices (MM) are provided for the temperature change or the throughflow, - a control unit (SE) which is connected to the measuring devices (MM) by means of data cables or by radio, - wherein the control unit (SE) has an evaluation module (AM) for the data transmitted by the measuring devices (MM),
Manufacturing method for a natural fiber-containing suture-free shirt with a cotton fabrics content of 100%, or from linen fabrics, or with a cotton fabrics content of 65%, comprising a collar piece , a front piece , a back piece , a shoulder piece , a sleeve piece , a cuff piece and a hem piece , a placket piece and a pocket piece , wherein said manufacturing method includes the following steps: Cutting process: cutting natural fiber fabrics into garment pieces, wherein the garment pieces comprise the collar piece , the front piece , the back piece , the shoulder piece , the sleeve piece , the cuff piece , the hem piece , the placket piece and the breast pocket piece , wherein all or part of the pieces are cut using conjoined cutting, Connection bonding process: joint adhesion of adjacent pieces, wherein half cover-seam, parallel or stuck outside are used to connect, wherein various or all of the joints of garment pieces are performed by using a hot melt adhesive technology, wherein polyurethane adhesive materials are used to connect all the pieces into a whole, Three-dimensional ironing process: select an arc-match stereo ironing machine to iron and mold all of the joints, and Cooling process: using a gas suction device for quickly cooling down the joints to room temperature, characterized in that for producing a suture-less shirt with a cotton fabrics content of 100%, the width of the polyurethane adhesive materials in step is respectively chosen from 2 mm, 4 mm to 6 mm, having a thickness of 0.02 mm and 0.04 mm, and in that for producing a suture-less shirt from linen fabrics the width of polyurethane adhesive materials in step is respectively chosen as 8 mm and 10 mm and the thickness is 0.04 mm, and in that for producing a suture-less shirt with a cotton fabrics content of 65% the width of polyurethane adhesive materials in step is respectively chosen from 6 mm and 8 mm, having a thickness of 0.03 mm and 0.05 mm. Cutting process: cutting natural fiber fabrics into garment pieces, wherein the garment pieces comprise the collar piece , the front piece , the back piece , the shoulder piece , the sleeve piece , the cuff piece , the hem piece , the placket piece and the breast pocket piece , wherein all or part of the pieces are cut using conjoined cutting, Connection bonding process: joint adhesion of adjacent pieces, wherein half cover-seam, parallel or stuck outside are used to connect, wherein various or all of the joints of garment pieces are performed by using a hot melt adhesive technology, wherein polyurethane adhesive materials are used to connect all the pieces into a whole, Three-dimensional ironing process: select an arc-match stereo ironing machine to iron and mold all of the joints, and Cooling process: using a gas suction device for quickly cooling down the joints to room temperature,
An illumination device , arranged to generate first and second light in opposite directions, comprising - a waveguide element comprising a first face , a second face , and a waveguide edge ; - a LED light source , arranged to generate light source light , with optional collimating optics , wherein the LED light source with optional collimating optics is arranged to couple at least part of the light source light into the waveguide element via the waveguide edge of the waveguide element to provide waveguide light ; and - a first transmissive reflector , arranged at the first face side, and a second transmissive reflector , arranged at the second face side, wherein the LED light source with optional collimating optics , the waveguide element , the first transmissive reflector , and the second transmissive reflector , are arranged to generate the first and the second light in a direction away from the first face and in a direction away from the second face , respectively, the illumination device further comprising a controllable attenuator , arranged to attenuate part of the first or second light , characterized in that the attenuator comprises a device with an opening with a controllable opening size and further characterized in that at a waveguide side of the attenuator , the attenuator is reflective. - a waveguide element comprising a first face , a second face , and a waveguide edge ; - a LED light source , arranged to generate light source light , with optional collimating optics , wherein the LED light source with optional collimating optics is arranged to couple at least part of the light source light into the waveguide element via the waveguide edge of the waveguide element to provide waveguide light ; and - a first transmissive reflector , arranged at the first face side, and a second transmissive reflector , arranged at the second face side,
A down hole apparatus for monitoring a parameter of interest for a fluid sample downhole comprising: a down hole tool containing a chamber for containing a fluid sample downhole; the down hole apparatus being characterised by a cooled downhole tunable diode laser ultrahigh resolution spectrometer for analyzing the fluid sample to determine a first parameter of interest for the fluid sample.
A method, comprising: storing electrical energy near a well on a sea floor in an energy storage device , and subsequently activating well control equipment of the well using the stored electrical energy, wherein in the step of activating the well control equipment, the energy storage device provides the stored electrical energy to operate well control equipment, characterised in that : the step of storing electrical energy in the energy storage device comprises receiving into the energy storage device a trickle charge from an umbilical connection to a surface power source, and in that the step of activating the well control equipment comprises receiving additional power from the umbilical connection to the surface power source and activating the well control equipment with a combination of the stored electrical energy provided by the energy storage device and the additional power received from the umbilical connection. storing electrical energy near a well on a sea floor in an energy storage device , and subsequently activating well control equipment of the well using the stored electrical energy, wherein in the step of activating the well control equipment, the energy storage device provides the stored electrical energy to operate well control equipment, characterised in that : the step of storing electrical energy in the energy storage device comprises receiving into the energy storage device a trickle charge from an umbilical connection to a surface power source, and in that the step of activating the well control equipment comprises receiving additional power from the umbilical connection to the surface power source and activating the well control equipment with a combination of the stored electrical energy provided by the energy storage device and the additional power received from the umbilical connection. the step of storing electrical energy in the energy storage device comprises receiving into the energy storage device a trickle charge from an umbilical connection to a surface power source, and in that the step of activating the well control equipment comprises receiving additional power from the umbilical connection to the surface power source and activating the well control equipment with a combination of the stored electrical energy provided by the energy storage device and the additional power received from the umbilical connection.
An aircraft incorporating a cabin air recovery system, the aircraft comprising: a pressurizable cabin , main turbofan engines , each turbofan engine having fan blades , a gas turbine coupled with the fan blades and a by-pass duct bypassing the gas turbine , characterized in that the cabin is fluidly communicated with the by-pass duct downstream the fan blades , so that, during operation cabin outflow air can be discharged into the by-pass duct downstream the fan blades .