mhurhangee/patent-ind-claim-en huggingface dataset:
A device for compacting a subsurface, comprising - an undercarriage having a baseplate arranged thereon, - an upper carriage , which is connected to the undercarriage in a force-transmitting manner and comprises a vibration exciter which sets at least the baseplate of the undercarriage in vibration during operation of the device , and - a contact plate , which is arranged on the baseplate , on an underside of the baseplate facing away from the upper carriage , and comes into direct contact with the subsurface to be compacted during operation of the device , the contact plate and the baseplate being connected to each other in a force-transmitting, non-destructively detachable manner, and the contact plate having at least one connection region , which engages in a directly interlocking manner with the baseplate and transmits the force between the contact plate and the baseplate during operation of the device , characterised in that wherein the connection region is moulded on the rest of the contact plate and, when the contact plate is in an installed state, fits around the baseplate in an interlocking manner from the underside of the baseplate , extends to an upper side of the baseplate facing the upper carriage and engages with the upper side there. - an undercarriage having a baseplate arranged thereon, - an upper carriage , which is connected to the undercarriage in a force-transmitting manner and comprises a vibration exciter which sets at least the baseplate of the undercarriage in vibration during operation of the device , and - a contact plate , which is arranged on the baseplate , on an underside of the baseplate facing away from the upper carriage , and comes into direct contact with the subsurface to be compacted during operation of the device ,
An underwater vehicle comprising an outer hull which is at least partially surrounded by water during operation of the underwater vehicle and a device for covering an underwater acoustic receiver of the underwater vehicle, the device having the following features: a casing for accommodating the underwater sound receiver , the casing having a window in a first region, the window being designed to allow sound waves to pass through, the casing being connected to the outer casing in a watertight manner; a valve which is designed to allow water surrounding the device to flow into the envelope and prevent water present in the envelope from flowing out of the envelope ; an outlet opening which is designed to allow water present in the casing to flow out when water flows in through the valve ; so that the higher pressure outside the hull compared to the hydrostatic pressure inside the hull, which occurs when the underwater vehicle is moving, results in water exchange in the hull. a casing for accommodating the underwater sound receiver , the casing having a window in a first region, the window being designed to allow sound waves to pass through, the casing being connected to the outer casing in a watertight manner; a valve which is designed to allow water surrounding the device to flow into the envelope and prevent water present in the envelope from flowing out of the envelope ; an outlet opening which is designed to allow water present in the casing to flow out when water flows in through the valve ; so that the higher pressure outside the hull compared to the hydrostatic pressure inside the hull, which occurs when the underwater vehicle is moving, results in water exchange in the hull.
A method for producing a wedged multilayer Laue lens suitable to be used with different wavelengths of X-rays by adjusting the position of the lens in the x-z-plane, comprising the following steps: - Providing a lens blank comprising a substrate element having a flat upper surface extending in a plane defined by orthogonal axes x, y, z, wherein x and z extend in the plane and y extends normal to the plane , a layered structure deposited on the upper surface of the substrate element in such a way that at least two different materials are layered upon one another in an alternating manner, wherein the y-extension of the layered structure is constant along the x-axis and varies along the z-axis within a ramp section where the y-extension of the layered structure increases from a starting point , where first particles of material of the layered structure are deposited on the upper surface of the substrate element , to a saturation point , where a maximum y-extension of the layered structure is reached; and - Slicing the lens out of the lens blank by slicing through the ramp section in a way not parallel to the x- and z-axes. - Providing a lens blank comprising a substrate element having a flat upper surface extending in a plane defined by orthogonal axes x, y, z, wherein x and z extend in the plane and y extends normal to the plane , a layered structure deposited on the upper surface of the substrate element in such a way that at least two different materials are layered upon one another in an alternating manner, wherein the y-extension of the layered structure is constant along the x-axis and varies along the z-axis within a ramp section where the y-extension of the layered structure increases from a starting point , where first particles of material of the layered structure are deposited on the upper surface of the substrate element , to a saturation point , where a maximum y-extension of the layered structure is reached; and a substrate element having a flat upper surface extending in a plane defined by orthogonal axes x, y, z, wherein x and z extend in the plane and y extends normal to the plane , a layered structure deposited on the upper surface of the substrate element in such a way that at least two different materials are layered upon one another in an alternating manner, wherein the y-extension of the layered structure is constant along the x-axis and varies along the z-axis within a ramp section where the y-extension of the layered structure increases from a starting point , where first particles of material of the layered structure are deposited on the upper surface of the substrate element , to a saturation point , where a maximum y-extension of the layered structure is reached; and - Slicing the lens out of the lens blank by slicing through the ramp section in a way not parallel to the x- and z-axes.
A method for preparing fibrocartilage, the method comprising: culturing chondrocytes under a tensile stimulus, wherein the tensile stimulus is applied for 3 days to 10 days, wherein the method further comprises a step of culturing the cells for an additional 14 to 21 days in a cartilage differentiation medium after removing the tensile stimulus, wherein the fibrocartilage is formed and prepared without a scaffold. wherein the tensile stimulus is applied for 3 days to 10 days, wherein the method further comprises a step of culturing the cells for an additional 14 to 21 days in a cartilage differentiation medium after removing the tensile stimulus, wherein the fibrocartilage is formed and prepared without a scaffold.
Device suitable for being connected with a circular precipitator for a two-stage electrostatic filter, wherein the precipitator is formed of at least two strip-like electrode elements wound around a centrally arranged bobbin and the electrode elements are arranged at a distance "d" from one another so that gaps are formed between the electrode elements, wherein the device includes means suitable for rotating the precipitator about its centre axis and wherein a vacuum cleaner nozzle (27; 127; 227; 327) suitable for being arranged on one side of the precipitator , the vacuum cleaner nozzle (27; 127; 227; 327) being suitable for being situated in the immediate vicinity of the precipitator , characterised in that the vacuum cleaner nozzle (27; 127; 227; 327) is provided with at least two elements (35/36; 135/136; 235/236; 335/336) designed to be suitable for penetrating into the gaps between adjacent electrode elements of the precipitator , and that the elements (35/36; 135/136; 235/236; 335/336) free dust particles and other dirt adhering to the electrode elements in a mechanical manner, that the vacuum cleaner nozzle (27; 127; 227; 327) is connected to one end of a tube (25; 125), and that the other end of the tube (25; 125) is connected to a rotatable holder (20; 120).
A mobile device comprising: a display ; a camera configured to photograph a space in which an imaging device, which is an electronic device capable of displaying an image is to be installed; a user interface unit configured to receive a user input; and a control unit configured to control the display to display an image of the space photographed by the camera together with a grid displayed on a plane recognized from the image of the space, the grid comprising a plurality of cells and control the display to display a virtual image of the imaging device having an adjusted size on the grid in response to the user input of selecting at least one cell from among the plurality of cells to adjust the size of the virtual image of the imaging device. a display ; a camera configured to photograph a space in which an imaging device, which is an electronic device capable of displaying an image is to be installed; a user interface unit configured to receive a user input; and a control unit configured to control the display to display an image of the space photographed by the camera together with a grid displayed on a plane recognized from the image of the space, the grid comprising a plurality of cells and control the display to display a virtual image of the imaging device having an adjusted size on the grid in response to the user input of selecting at least one cell from among the plurality of cells to adjust the size of the virtual image of the imaging device.
A control channel transmission method, comprising: determining L physical resource block pairs that are used to transmit a control channel, wherein resource elements excluding a resource element for a demodulation reference signal, DMRS, in each physical resource block pair of the L physical resource block pairs are grouped into at least one enhanced resource element group, eREG, wherein L is an integer greater than 0; obtaining , according to an aggregation level of the control channel, a number of enhanced control channel elements, eCCEs, that form the control channel and sequence numbers of eREGs mapped from each of the eCCEs, wherein, when L is greater than 1, the eREGs mapped from each eCCE are numbered differently , the eREGs being distributed on different physical resource block pairs of the L physical resource block pairs; and sending each of the eCCEs using the resource elements included in the eREGs corresponding to the sequence numbers of the eREGs mapped from each of the eCCEs. determining L physical resource block pairs that are used to transmit a control channel, wherein resource elements excluding a resource element for a demodulation reference signal, DMRS, in each physical resource block pair of the L physical resource block pairs are grouped into at least one enhanced resource element group, eREG, wherein L is an integer greater than 0; obtaining , according to an aggregation level of the control channel, a number of enhanced control channel elements, eCCEs, that form the control channel and sequence numbers of eREGs mapped from each of the eCCEs, wherein, when L is greater than 1, the eREGs mapped from each eCCE are numbered differently , the eREGs being distributed on different physical resource block pairs of the L physical resource block pairs; and sending each of the eCCEs using the resource elements included in the eREGs corresponding to the sequence numbers of the eREGs mapped from each of the eCCEs.
A modular linking system with at least one linking module and at least one link to be connected therewith, wherein the linking module comprises a module body , a locking means , and at least one ball joint with a ball , wherein the ball has a central opening in form of a through hole along a center line, wherein the at least one link can be at least partly inserted into the central opening , and the locking means is adapted to releasably lock the orientation and position of each link inserted into the central opening defining a locking state and at least one release state, characterized by at least two shells , which are adapted to be attached to the module body , and the at least one ball joint comprises a slit and an end cap , which has a first elongated opening and is rotatably held between the module body and shells , with the ball being rotatably arranged between the module body and the end cap and the ball at least partly being housed within the end cap .
A method for supporting location determination of a user equipment, UE, performed by a location server in a wireless network which uses a Bandwidth Part, BWP, to schedule the UE only in a specific subset of frequencies within the total available carrier bandwidth, the method comprising: sending a request for BWP information to a first entity, wherein the first entity comprises the UE or a serving New Radio, NR, Node B, gNB, in the wireless network that is serving the UE; receiving a response with BWP information from the first entity; determining assistance data using the BWP information; sending the assistance data to the UE; receiving from the UE location information measured by the UE using the assistance data; and determining a location of the UE based on the location information. sending a request for BWP information to a first entity, wherein the first entity comprises the UE or a serving New Radio, NR, Node B, gNB, in the wireless network that is serving the UE; receiving a response with BWP information from the first entity; determining assistance data using the BWP information; sending the assistance data to the UE; receiving from the UE location information measured by the UE using the assistance data; and determining a location of the UE based on the location information.
A hydraulic valve comprising a hydraulic ram and a split ring assembly for adjusting the throughput of a fluid of the hydraulic valve , the split ring assembly comprising an elastomeric element being adapted to mount a split ring around the hydraulic ram , wherein the elastomeric element is arranged around the outward circumference of the split ring , wherein the throughput of the fluid is adjustable depending on the degree to which the throughput of hydraulic fluid is limited by the split ring ; and wherein the split ring assembly is movable and the hydraulic ram is fixed, wherein the split ring assembly is movable along the longitudinal axis of the hydraulic ram in a closing or at least partially closing position in order to fully close or at least partially close the flow of the hydraulic fluid or in an open position in order to enable a maximum throughput of the hydraulic fluid through the hydraulic valve, or the split ring assembly is fixed and the hydraulic ram is movable along the longitudinal axis of the hydraulic ram to position the hydraulic ram in relation to the split ring assembly in a closing or at least partially closing position in order to fully close or at least partially close the flow of the hydraulic fluid or in an open position in order to enable a maximum throughput of the hydraulic fluid.. wherein the throughput of the fluid is adjustable depending on the degree to which the throughput of hydraulic fluid is limited by the split ring ; and wherein the split ring assembly is movable and the hydraulic ram is fixed, wherein the split ring assembly is movable along the longitudinal axis of the hydraulic ram in a closing or at least partially closing position in order to fully close or at least partially close the flow of the hydraulic fluid or in an open position in order to enable a maximum throughput of the hydraulic fluid through the hydraulic valve, or the split ring assembly is fixed and the hydraulic ram is movable along the longitudinal axis of the hydraulic ram to position the hydraulic ram in relation to the split ring assembly in a closing or at least partially closing position in order to fully close or at least partially close the flow of the hydraulic fluid or in an open position in order to enable a maximum throughput of the hydraulic fluid..
An infrastructure-controller for an infrastructure , the infrastructure-controller configured to: send a ranging-scheduling-signal to a key , wherein the ranging-scheduling-signal comprises timing-information for a subsequent ranging operation; and activate one or more ranging nodes associated with the infrastructure, for receiving a key-ranging-signal from the key, at an infrastructure-node-start-ranging-time based on the timing-information; wherein: the ranging-scheduling-signal has a frequency in a first RF frequency range; the key-ranging-signal has a frequency in a second RF frequency range; and second RF frequency range is different to the first RF frequency range. send a ranging-scheduling-signal to a key , wherein the ranging-scheduling-signal comprises timing-information for a subsequent ranging operation; and activate one or more ranging nodes associated with the infrastructure, for receiving a key-ranging-signal from the key, at an infrastructure-node-start-ranging-time based on the timing-information; wherein: the ranging-scheduling-signal has a frequency in a first RF frequency range; the key-ranging-signal has a frequency in a second RF frequency range; and second RF frequency range is different to the first RF frequency range. the ranging-scheduling-signal has a frequency in a first RF frequency range; the key-ranging-signal has a frequency in a second RF frequency range; and second RF frequency range is different to the first RF frequency range.
An apparatus , comprising: a sensing structure (100; 200; 300; 320; 340; 400) including a composite material having a plurality of conductive fillers included in a matrix, the plurality of conductive fillers having a volumetric percentage of less than 25% of a volume of the sensing structure, the plurality of conductive fillers including: conductive nanoparticles including conductive nanostrands; and a plurality of conductive stabilizers including carbon fibers having a diameter of at least 0.2 μm; and a plurality of electrical leads (102; A1-A8; 310) coupled to one or more portions of the sensing structure wherein the composite material has less than 5% by volume voids, wherein the sensing structure has a negative piezoresistive response. conductive nanoparticles including conductive nanostrands; and a plurality of conductive stabilizers including carbon fibers having a diameter of at least 0.2 μm; and a plurality of electrical leads (102; A1-A8; 310) coupled to one or more portions of the sensing structure wherein the composite material has less than 5% by volume voids, wherein the sensing structure has a negative piezoresistive response.
A method for adjusting the set points for regulating the velocity of a vehicle, wherein said velocity regulation is performed through the utilization of at least: - a cruise control, which controls an engine system with a velocity set point (v ref ) based on a selected set velocity (v set ); and - a downhill speed control, which controls a brake system with a braking set point (v dhsc_ref ) based on a downhill speed control velocity (v dhsc ), wherein said downhill speed control velocity (v dhsc ) is related to said set velocity (v set ) by an offset (v offset ) characterized by: - an adjustment of said velocity set point (v ref ) and of said braking set point (v dhsc_ref ) by at least one shift (v shift ), which has a value corresponding to said offset (v offset , v shift = v offset ), wherein - said adjustment is performed based on an actual behavior of said vehicle. - a cruise control, which controls an engine system with a velocity set point (v ref ) based on a selected set velocity (v set ); and - a downhill speed control, which controls a brake system with a braking set point (v dhsc_ref ) based on a downhill speed control velocity (v dhsc ), wherein said downhill speed control velocity (v dhsc ) is related to said set velocity (v set ) by an offset (v offset ) - an adjustment of said velocity set point (v ref ) and of said braking set point (v dhsc_ref ) by at least one shift (v shift ), which has a value corresponding to said offset (v offset , v shift = v offset ), wherein - said adjustment is performed based on an actual behavior of said vehicle.
A compound which is a pyrimidine derivative of formula (I): wherein: Z is a direct bond or -(CH 2 ) n - wherein n is 1 or 2; one of X and Y is N, CH or CF, and the other of X and Y is CH; one of R 1 and R 2 is selected from -NHR, -NR 2 , -OR, -SR, -S(O)R, -S(O) 2 R and a group of the following formula (A): and the other of R 1 and R 2 is selected from -NHR', -OH, -OR' and a group of the above formula (A); R is unsubstituted C 1 -C 6 alkyl; R' is a group selected from C 1 -C 6 alkyl, 6 - to 12-membered aryl and C 3 -C 6 cycloalkyl, which group is unsubstituted or substituted by R, -OH, -OR, -CF 3 , -S(O) 2 R, -CN, -NH 2 , -NHR or NR 2 , wherein R is as defined above; W is -(CH 2 ) m -, -CH 2 -O-CH 2 -, -CH 2 -S-CH 2 - or -CH 2 -S(O) 2 -CH 2 -; m is an integer of 1 to 4; p is 1, q is an integer of 1 - 6 and Vis N; or p is 1, q is 0 and V is CH; or p is 0, q is 0 and V is N; r is 0 or 1; and R 3 is -(CH 2 ) s -NH 2 or -(CH 2 ) s -OH wherein s is 0 or an integer of 1 to 4; or a pharmaceutically acceptable salt thereof. Z is a direct bond or -(CH 2 ) n - wherein n is 1 or 2; one of X and Y is N, CH or CF, and the other of X and Y is CH; one of R 1 and R 2 is selected from -NHR, -NR 2 , -OR, -SR, -S(O)R, -S(O) 2 R and a group of the following formula (A): and the other of R 1 and R 2 is selected from -NHR', -OH, -OR' and a group of the above formula (A); R is unsubstituted C 1 -C 6 alkyl; R' is a group selected from C 1 -C 6 alkyl, 6 - to 12-membered aryl and C 3 -C 6 cycloalkyl, which group is unsubstituted or substituted by R, -OH, -OR, -CF 3 , -S(O) 2 R, -CN, -NH 2 , -NHR or NR 2 , wherein R is as defined above; W is -(CH 2 ) m -, -CH 2 -O-CH 2 -, -CH 2 -S-CH 2 - or -CH 2 -S(O) 2 -CH 2 -; m is an integer of 1 to 4; p is 1, q is an integer of 1 - 6 and Vis N; or p is 1, q is 0 and V is CH; or p is 0, q is 0 and V is N; r is 0 or 1; and R 3 is -(CH 2 ) s -NH 2 or -(CH 2 ) s -OH wherein s is 0 or an integer of 1 to 4;
A system comprising: a sensor monitoring an ambient region; an illumination system; and an image capturing device, wherein, upon the sensor detecting an alarm condition in the ambient region, the image capturing device is activated for capturing an image of the ambient region to determine whether the captured image is consistent with the alarm condition, and characterised in that the illumination system is activated for illuminating the ambient region when the image capturing device detects a predetermined amount of smoke in the ambient region to facilitate capturing images of the monitored region. a sensor monitoring an ambient region; an illumination system; and an image capturing device, wherein, upon the sensor detecting an alarm condition in the ambient region, the image capturing device is activated for capturing an image of the ambient region to determine whether the captured image is consistent with the alarm condition, and characterised in that the illumination system is activated for illuminating the ambient region when the image capturing device detects a predetermined amount of smoke in the ambient region to facilitate capturing images of the monitored region.