mhurhangee/patent-ind-claim-en huggingface dataset:
A method performed by a receiving node to reserve a directional channel, the method comprising: • receiving a directional Request-to-Send (DRTS) message from a transmitting node; • transmitting a directional Clear-to-Send (DCTS) message using one or more first beams, with at least one first beam being directed in a first direction towards the transmitting node; • determining a second direction towards a potentially interfering node, the second direction being a different direction than the first direction; • transmitting at least one additional DCTS message using one or more second beams, with at least one second beam being directed in the second direction towards the potentially interfering node; • receiving data from the transmitting node; and characterised in that • in between receiving the data from the transmitting node, periodically transmitting subsequent one or more additional DCTS messages in at least the second direction within a maximum channel occupancy time (MCOT). • receiving a directional Request-to-Send (DRTS) message from a transmitting node; • transmitting a directional Clear-to-Send (DCTS) message using one or more first beams, with at least one first beam being directed in a first direction towards the transmitting node; • determining a second direction towards a potentially interfering node, the second direction being a different direction than the first direction; • transmitting at least one additional DCTS message using one or more second beams, with at least one second beam being directed in the second direction towards the potentially interfering node; • receiving data from the transmitting node; and characterised in that • in between receiving the data from the transmitting node, periodically transmitting subsequent one or more additional DCTS messages in at least the second direction within a maximum channel occupancy time (MCOT).
Trim arrangement for the interior fittings of a motor vehicle, in particular for the interior fittings of a motor vehicle door, comprising an operating element that can be mechanically connected to a fastening structure , at least one trim element that is arranged at least in portions on an outer side of the operating element , and at least one force transmission element that is arranged on a side of the trim element facing away from the operating element and that forms at least a first contact element for contacting the fastening structure and at least a second contact element for contacting the trim element , so that when a force is applied to the trim arrangement by at least one component perpendicular to the side of the trim element facing away from the operating element and the operating element is displaced, caused by the application of the force , the relative position of the trim element to the operating element remains at least substantially unchanged.
Wiper blade for the cleaning of vehicle windows, with a wiper blade body , which is able to be connected to a wiper arm via a wiper blade adapter arranged approximately centrally on the wiper blade body , wherein the wiper blade body has a wiper rubber with a wiper lip , and wherein a receiving groove which is U-shaped in cross section is formed and in which a strip-shaped spring strip engages in the wiper rubber on both longitudinal sides lying opposite each other, wherein the two spring strips are rigidly connected to each other by means of at least one reinforcing element , wherein the reinforcing element engages over the wiper blade body on the side facing away from the wiper lip and is connected directly to the two spring strips , wherein the reinforcing element has mounts , which are U-shaped in cross section, for the spring strips , which embrace the spring strips on the sides lying opposite the receiving grooves of the wiper rubber , by a clamping fit, wherein the wiper blade body forms a spoiler element on the side facing away from the wiper lip , and that the cross section of the reinforcing element is adapted to the cross section of the spoiler element , wherein at least one reinforcing element is arranged in each case on both sides of the wiper blade adapter , wherein each reinforcing element has at least one through-bore for a washing fluid, each through-bore extending parallel to the wiper blade body , wherein each reinforcing element consists of plastic and is constructed as an injection moulded part characterized in that each through-bore is connected by means of at least one connecting piece to a washing fluid duct constructed in the spoiler element .
A computer implemented method for operating a vehicle , comprising the steps of: - receiving an indication of a route for transporting a predefined cargo, the indication of the route comprising a start and a destination, the route comprising a plurality of segments, - receiving an indication of a required time of arrival at the destination, - determining a speed profile for travelling the route, - determining a relaxation coefficient for the speed profile , and - controlling the vehicle based on a combination of the speed profile and the relaxation coefficient , wherein: - the relaxation coefficient is dependent on a combination of a delay risk for the route and a penalty for arrival at the destination after the required time of arrival, - the speed profile is adapted for the plurality of segments of the route to be travelled, and - the relaxation is applied for controlling how strictly the speed profile is to be followed, wherein the delay risk for the route is determined by applying a machine learning scheme to simulated or historical data for the route. - receiving an indication of a route for transporting a predefined cargo, the indication of the route comprising a start and a destination, the route comprising a plurality of segments, - receiving an indication of a required time of arrival at the destination, - determining a speed profile for travelling the route, - determining a relaxation coefficient for the speed profile , and - controlling the vehicle based on a combination of the speed profile and the relaxation coefficient , - the relaxation coefficient is dependent on a combination of a delay risk for the route and a penalty for arrival at the destination after the required time of arrival, - the speed profile is adapted for the plurality of segments of the route to be travelled, and - the relaxation is applied for controlling how strictly the speed profile is to be followed,
A method for uplink transmission on configured grant resources in a cellular wireless communications network, the method performed at a UE and comprising the steps of receiving an indication of allocated recurring uplink transmission resources, wherein the allocated recurring uplink transmission resources are grouped with N occasions in each of a repeating period P, and a number of repetitions K to be used for the uplink transmission of transport blocks in the recurring uplink transmission resources ; transmitting repetitions of a transport block within a single one of the periods P, each repetition being transmitted on an occasion of the N occasions in the period P ; characterized in that the method further comprises the steps of if the number of transmitted repetitions is less than K transmitting a scheduling request relating to the transport block (301; 400); if the number of transmitted repetitions is K and channel quality is estimated to be poor, transmitting a scheduling request relating to the transport block . receiving an indication of allocated recurring uplink transmission resources, wherein the allocated recurring uplink transmission resources are grouped with N occasions in each of a repeating period P, and a number of repetitions K to be used for the uplink transmission of transport blocks in the recurring uplink transmission resources ; transmitting repetitions of a transport block within a single one of the periods P, each repetition being transmitted on an occasion of the N occasions in the period P ; characterized in that the method further comprises the steps of if the number of transmitted repetitions is less than K transmitting a scheduling request relating to the transport block (301; 400); if the number of transmitted repetitions is K and channel quality is estimated to be poor, transmitting a scheduling request relating to the transport block .
A compound of formula (I) or a pharmaceutically acceptable salt thereof, wherein, R 1 , X are separately and independently selected from the group consisting of H, F, Cl, Br, I, CN, OH, NH 2 , C 1-3 alkyl, C 1-3 alkoxy, C 1-3 alkylamino and N,N-di(C 1-3 alkyl)amino, wherein the C 1-3 alkyl is optionally substituted by R 01 ; R 2 is W is N(R w1 ) or C(R w2 )(R w3 ); L, Z are separately and independently selected from the group consisting of single bond and C(R z1 )(R z2 ); P is (CH 2 ) q1 ; Q is (CH 2 ) q2 ; Either: (A) q 1 is selected from the group consisting of 0, 1, 2, 3 and 4; and q 2 is selected from the group consisting of 1, 2, 3 and 4; or (B) q 1 , is selected from the group consisting of 1, 2, 3 and 4; and q 2 is selected from the group consisting of 0, 1, 2, 3 and 4; R 3a , R 3b , R w1 , R w2 , R w3 , R z1 , R z2 are separately and independently selected from the group consisting of H, F, Cl, Br, I, CN, OH, NH 2 , C 1-3 alkyl, C 1-3 alkoxy, C 1-3 alkylamino, and N,N-di(C 1-3 alkyl)amino, wherein the C 1-3 alkyl is optionally substituted by R 01 ; R 01 is selected from the group consisting of F, Cl, Br, I, OH, NH 2 , the number of R 01 is 1, 2 or 3; provided that the compound of formula (I) is not R 1 , X are separately and independently selected from the group consisting of H, F, Cl, Br, I, CN, OH, NH 2 , C 1-3 alkyl, C 1-3 alkoxy, C 1-3 alkylamino and N,N-di(C 1-3 alkyl)amino, wherein the C 1-3 alkyl is optionally substituted by R 01 ; R 2 is W is N(R w1 ) or C(R w2 )(R w3 ); L, Z are separately and independently selected from the group consisting of single bond and C(R z1 )(R z2 ); P is (CH 2 ) q1 ; Q is (CH 2 ) q2 ; Either: (A) q 1 is selected from the group consisting of 0, 1, 2, 3 and 4; and q 2 is selected from the group consisting of 1, 2, 3 and 4; or (B) q 1 , is selected from the group consisting of 1, 2, 3 and 4; and q 2 is selected from the group consisting of 0, 1, 2, 3 and 4; (A) q 1 is selected from the group consisting of 0, 1, 2, 3 and 4; and q 2 is selected from the group consisting of 1, 2, 3 and 4; or (B) q 1 , is selected from the group consisting of 1, 2, 3 and 4; and q 2 is selected from the group consisting of 0, 1, 2, 3 and 4; R 3a , R 3b , R w1 , R w2 , R w3 , R z1 , R z2 are separately and independently selected from the group consisting of H, F, Cl, Br, I, CN, OH, NH 2 , C 1-3 alkyl, C 1-3 alkoxy, C 1-3 alkylamino, and N,N-di(C 1-3 alkyl)amino, wherein the C 1-3 alkyl is optionally substituted by R 01 ; R 01 is selected from the group consisting of F, Cl, Br, I, OH, NH 2 , the number of R 01 is 1, 2 or 3; provided that the compound of formula (I) is not
A method for designing a transition metal/silicon base material film for a photomask having formed thereon a pattern of the transition metal/silicon base material film of a material comprising a transition metal, silicon, oxygen and nitrogen, the transition metal/silicon base material film containing oxygen of at least 3 atom%, the method being suitable for designing the transition metal/silicon base material film such that the film pattern may be restrained in pattern line width variation degradation by irradiation of ArF excimer laser light, characterized in that the method comprises the steps of: constructing the transition metal/silicon base material film by selecting a layer of a transition metal/silicon base material; a multilayer structure having at least two such layers stacked; a combination of such a layer with a surface oxidized layer disposed remote from the substrate and having a thickness of up to 10 nm; or a combination of such a multilayer structure with a surface oxidized layer disposed remote from the substrate and having a thickness of up to 10 nm, wherein a silicon content C Si and a transition metal content C M of the layer of a transition metal/silicon base material satisfy the following formula : 4 × C Si / 100 − 6 × C M / 100 > 1 wherein C Si is a silicon content in atom% and C M is a transition metal content in atom%. constructing the transition metal/silicon base material film by selecting a layer of a transition metal/silicon base material; a multilayer structure having at least two such layers stacked; a combination of such a layer with a surface oxidized layer disposed remote from the substrate and having a thickness of up to 10 nm; or a combination of such a multilayer structure with a surface oxidized layer disposed remote from the substrate and having a thickness of up to 10 nm, wherein a silicon content C Si and a transition metal content C M of the layer of a transition metal/silicon base material satisfy the following formula :
A diagnostic support for a skin comprising - a radio-transparent structure suitable to define at least one folding surface of said skin on which said skin may be at least partially stretched and consequently folded, thereby defining folded, mutually superimposed portions of said skin ; - and characterised in that - said radio-transparent structure is suitable to position itself between said folded portions, thus spacing them apart from each other, said radio-transparent structure defines a longitudinal axis and comprises ∘ a flexible plate defining said folding surface and suitable to roll up on itself, thus folding said skin , and ∘ a base body on which the plate is wound defining an axis substantially extending almost parallel to said longitudinal axis ; and in that - said base body has a circular section perpendicular to said longitudinal axis with a diameter suitably at least equal to 5 cm. - a radio-transparent structure suitable to define at least one folding surface of said skin on which said skin may be at least partially stretched and consequently folded, thereby defining folded, mutually superimposed portions of said skin ; - and characterised in that - said radio-transparent structure is suitable to position itself between said folded portions, thus spacing them apart from each other, said radio-transparent structure defines a longitudinal axis and comprises ∘ a flexible plate defining said folding surface and suitable to roll up on itself, thus folding said skin , and ∘ a base body on which the plate is wound defining an axis substantially extending almost parallel to said longitudinal axis ; and in that ∘ a flexible plate defining said folding surface and suitable to roll up on itself, thus folding said skin , and ∘ a base body on which the plate is wound defining an axis substantially extending almost parallel to said longitudinal axis ; - said base body has a circular section perpendicular to said longitudinal axis with a diameter suitably at least equal to 5 cm.
A device comprising: a first inlet configured to receive a fluid; a hollow-shaped body configured to provide the fluid for gas exchange through the hollow-shaped body; a first outlet configured to output the fluid, wherein the first inlet is coupled to a first end of the hollow-shaped body and the first outlet is coupled to a second end of the hollow-shaped body; a second inlet configured to receive a gas for gas exchange with the fluid and provide the gas over the hollow-shaped body; and a second outlet configured to output a mixture comprising the gas and the fluid, wherein the device is a conical-shaped spiral contactor comprising a plurality of rib-shaped structures on its surface forming channels for flowing the gas, wherein the device is configured to rotate to create centrifugal force to form a thin layer of the gas on the surface. a first inlet configured to receive a fluid; a hollow-shaped body configured to provide the fluid for gas exchange through the hollow-shaped body; a first outlet configured to output the fluid, wherein the first inlet is coupled to a first end of the hollow-shaped body and the first outlet is coupled to a second end of the hollow-shaped body; a second inlet configured to receive a gas for gas exchange with the fluid and provide the gas over the hollow-shaped body; and a second outlet configured to output a mixture comprising the gas and the fluid, wherein the device is a conical-shaped spiral contactor comprising a plurality of rib-shaped structures on its surface forming channels for flowing the gas, wherein the device is configured to rotate to create centrifugal force to form a thin layer of the gas on the surface.
Bumper assembly which is coupled to a motor vehicle via crash boxes , having a main cross beam which is formed by a profile which is hollow in cross-section and is produced from a light metal alloy, and wherein one weakened zone is formed respectively on an upper flange and/or a lower flange on both sides, spaced apart parallel to one another, in the longitudinal direction of the main cross beam , wherein the weakened zone is formed by a hole pattern , characterised in that the respective width of the weakened zone is between 20 mm and 150 mm, wherein the width of the weakened zone is greater than or equal to 1.5 times the depth of the weakened zone , and in that a respective weakened zone is arranged in a zone (B) of 0.1 times to 0.4 times the inner wall spacing of the crash boxes relative to a central cross-sectional plane of the main beam .
A stimulator and iontophoresis device (A) used for treating retina and optical nerve diseases, comprising: - a cap made of two parts; one being the front cap comprising an electromagnetic coil assembly including electromagnetic coils which create 4 electromagnetic fields at a vertex distance to the eyeballs, and cooling cages , each electromagnetic coil being covered with a respective cooling cage, and the other being the rear cap also comprising an electromagnetic coil assembly including electromagnetic coils which create 4 electromagnetic fields that stimulate the occipital cortex region and 1 electromagnetic field that stimulates the inter-hemispheric region, and cooling cages , each electromagnetic coil being covered with a respective cooling cage, - the device also comprising an electronic control box , comprising: a cooling compressor , a gas perfluorocarbon tank , an electronic card and a processor having a counter thereon configured to adjust the intensity, frequency and time of the electromagnetic field created by the electromagnetic coils , and a speaker connected to the electronic card and processor , wherein the cooling compressor is connected with the cooling cages inside the front cap and rear cap through cooling pipes that are housed in a connection pipe . - a cap made of two parts; one being the front cap comprising an electromagnetic coil assembly including electromagnetic coils which create 4 electromagnetic fields at a vertex distance to the eyeballs, and cooling cages , each electromagnetic coil being covered with a respective cooling cage, and the other being the rear cap also comprising an electromagnetic coil assembly including electromagnetic coils which create 4 electromagnetic fields that stimulate the occipital cortex region and 1 electromagnetic field that stimulates the inter-hemispheric region, and cooling cages , each electromagnetic coil being covered with a respective cooling cage, - the device also comprising an electronic control box , comprising: a cooling compressor , a gas perfluorocarbon tank , an electronic card and a processor having a counter thereon configured to adjust the intensity, frequency and time of the electromagnetic field created by the electromagnetic coils , and a speaker connected to the electronic card and processor , wherein the cooling compressor is connected with the cooling cages inside the front cap and rear cap through cooling pipes that are housed in a connection pipe .
A method of obtaining the vibrational properties (ω i , ζ i ) of natural frequency and damping ratio of a robot arm , where said robot arm comprises a plurality of robot joints (102a-102f) connecting a robot base and a robot tool flange ; where at least one of said robot joints comprises: • an output flange movable in relation to a robot joint body; • a joint motor configured to move said output flange in relation to said robot joint body; said method comprises the steps of: • setting said robot arm in a plurality of different physical configurations (C i ......C n ); • for each of said physical configurations of said robot arm obtaining the vibrational properties (ω i , ζ i ) of said robot arm in relation to at least one robot joint; • for each of said physical configurations of said robot arm obtaining the inertia (J i ) of said robot arm in relation to said at least one robot joint; and • obtaining an inertia-vibration model relating to said robot arm, wherein said inertia-vibration model defines a relationship between the inertia of said robot arm and said vibrational properties (ω i , ζ i ) of said robot arm, wherein said inertia-vibration model provides said vibrational properties of the robot arm as a function of the inertia of the robot arm, where said inertia-vibration model has been obtained based on said obtained vibrational properties of said robot arm for the plurality of different physical configurations (C i ......C n ) in relation to said at least one robot joint and said obtained inertia of said robot arm in relation to said at least one robot joint for the plurality of different physical configurations (C i ......C n ). • an output flange movable in relation to a robot joint body; • a joint motor configured to move said output flange in relation to said robot joint body; • setting said robot arm in a plurality of different physical configurations (C i ......C n ); • for each of said physical configurations of said robot arm obtaining the vibrational properties (ω i , ζ i ) of said robot arm in relation to at least one robot joint; • for each of said physical configurations of said robot arm obtaining the inertia (J i ) of said robot arm in relation to said at least one robot joint; and • obtaining an inertia-vibration model relating to said robot arm, wherein said inertia-vibration model defines a relationship between the inertia of said robot arm and said vibrational properties (ω i , ζ i ) of said robot arm, wherein said inertia-vibration model provides said vibrational properties of the robot arm as a function of the inertia of the robot arm,