mhurhangee/patent-ind-claim-en huggingface dataset:
A method of a control plane network entity in a mobile network scenario where an access of a terminal (UE) to a network is movable between at least two base stations and routable in parallel via at least one local gateway (LuGW1, LuGW2) and a centralized gateway, the method comprising detecting (S71) movement of said access of said terminal from a first base station to a second base station, determining (S72) that a first network route which is a current network route from said terminal via a first local gateway (LuGW1) which is a current local gateway of said at least one local gateway provides less network performance than a second network route from said terminal via a second local gateway (LuGW2) of said at least one local gateway based on a result of said detecting, deciding (S73) said second local gateway as a target local gateway for said terminal based on a result of said determining, and transmitting, if said second local gateway is decided as said target local gateway, information to said first local gateway, said information being indicative of a new preference value related to a session between said first local gateway and said terminal which is lower than a current preference value related to said session between said first local gateway and said terminal. detecting (S71) movement of said access of said terminal from a first base station to a second base station, determining (S72) that a first network route which is a current network route from said terminal via a first local gateway (LuGW1) which is a current local gateway of said at least one local gateway provides less network performance than a second network route from said terminal via a second local gateway (LuGW2) of said at least one local gateway based on a result of said detecting, deciding (S73) said second local gateway as a target local gateway for said terminal based on a result of said determining, and transmitting, if said second local gateway is decided as said target local gateway, information to said first local gateway, said information being indicative of a new preference value related to a session between said first local gateway and said terminal which is lower than a current preference value related to said session between said first local gateway and said terminal.
A compound of formula (I): that is: 4-(4-(4-(((3 R ,5 R )-5-((1 H -1,2,4-triazol-1-yl)methyl)-5-(2,4-difluorophenyl)tetrahydrofuran-3-yl)methoxy)-3-methylphenyl)piperazin-1-yl)- N -(4-fluorophenyl)benzamide in a crystalline form wherein the crystalline form is polymorphic Form 1, and wherein the crystalline form has: (a) an X-ray powder diffraction pattern containing seven peaks at (± 0.2) 7.0, 7.4, 7.9, 18.2, 19.7, 20.8 and 24.7 degrees 2-theta as measured using Cu Kα radiation; and/or (b) unit cell dimensions of 16.80 Å, 23.58 Å and 25.58 Å, and α, β and γ angles of 90°. (a) an X-ray powder diffraction pattern containing seven peaks at (± 0.2) 7.0, 7.4, 7.9, 18.2, 19.7, 20.8 and 24.7 degrees 2-theta as measured using Cu Kα radiation; and/or (b) unit cell dimensions of 16.80 Å, 23.58 Å and 25.58 Å, and α, β and γ angles of 90°.
A satellite comprising: a structural frame ; and thrusters within the structural frame; characterised in that the thrusters include thrusters in corners of the structural frame, the thrusters located in cavities within the frame that are formed during manufacture of the frame. a structural frame ; and thrusters within the structural frame; characterised in that the thrusters include thrusters in corners of the structural frame, the thrusters located in cavities within the frame that are formed during manufacture of the frame.
A method for producing a conductive through-via, comprising: obtaining a first substrate having a surface ; obtaining a second substrate having a first surface , a second surface , and a through-via extending from the first surface to the second surface ; applying a seed layer on the surface of the first substrate ; depositing a plasma polymerized film on either the seed layer or the second substrate to form a plasma treated a surface modification layer (114; 401) on the seed layer or the second substrate ; bonding the second substrate to the first substrate with the plasma treated surface modification layer (114; 401) to create an assembly (112; 212; 312; 412) such that an adhesion energy between the first and second substrates is in a range from 50 mJ/m 2 to 2,000 mJ/m 2 , wherein the seed layer and the plasma treated surface modification layer (114; 401) are disposed between the first and second substrates; applying conductive material to the through-via ; and removing the second substrate from the assembly (112; 212; 312; 412) after applying the conductive material to the through-via . obtaining a first substrate having a surface ; obtaining a second substrate having a first surface , a second surface , and a through-via extending from the first surface to the second surface ; applying a seed layer on the surface of the first substrate ; depositing a plasma polymerized film on either the seed layer or the second substrate to form a plasma treated a surface modification layer (114; 401) on the seed layer or the second substrate ; bonding the second substrate to the first substrate with the plasma treated surface modification layer (114; 401) to create an assembly (112; 212; 312; 412) such that an adhesion energy between the first and second substrates is in a range from 50 mJ/m 2 to 2,000 mJ/m 2 , wherein the seed layer and the plasma treated surface modification layer (114; 401) are disposed between the first and second substrates; applying conductive material to the through-via ; and removing the second substrate from the assembly (112; 212; 312; 412) after applying the conductive material to the through-via .
Method for printing a security feature on a medium comprising inkjet printing an ink including one or more pigments, wherein at least one pigment satisfies the formula 1 000 000 > π Δρ g d 4 12 k B T > 10 whereas Δρ is a density difference between pigment and ink vehicle g is an earth acceleration constant d is a pigment particle diameter D90 ; k B is a Boltzmann constant; and T is a temperature; wherein the pigment particle diameter D90 is from about 1 μm to about 50 μm; wherein the ink has a viscosity of less than 30 mPa*s at 1000s -1 and 25°C; whereas inkjet printing of the ink is performed by a flextensional ink jet print head structure; and printing is performed to provide one or more security features on the medium. wherein at least one pigment satisfies the formula 1 000 000 > π Δρ g d 4 12 k B T > 10 whereas Δρ is a density difference between pigment and ink vehicle g is an earth acceleration constant d is a pigment particle diameter D90 ; k B is a Boltzmann constant; and T is a temperature; Δρ is a density difference between pigment and ink vehicle g is an earth acceleration constant d is a pigment particle diameter D90 ; k B is a Boltzmann constant; and T is a temperature; wherein the pigment particle diameter D90 is from about 1 μm to about 50 μm; wherein the ink has a viscosity of less than 30 mPa*s at 1000s -1 and 25°C; whereas inkjet printing of the ink is performed by a flextensional ink jet print head structure; and printing is performed to provide one or more security features on the medium.
An inner casing of a diffuser-combustor assembly , comprising: an outer-ring ; an inner-ring circumscribed by the outer ring ; a plurality of struts , each strut of the plurality of struts having a body extending between the inner-ring and the outer-ring ; and more than one reinforcing-pad ; wherein the number of reinforcing-pads is less than the number of struts ; and wherein each of the reinforcing-pads is circumferentially aligned with one of the struts on an inner-side of the inner-ring . an outer-ring ; an inner-ring circumscribed by the outer ring ; a plurality of struts , each strut of the plurality of struts having a body extending between the inner-ring and the outer-ring ; and more than one reinforcing-pad ; wherein the number of reinforcing-pads is less than the number of struts ; and wherein each of the reinforcing-pads is circumferentially aligned with one of the struts on an inner-side of the inner-ring .
A viscous material wiping device for wiping a viscous material attached to a tip of a spatula , said device being configured to use a sheet for performing said wiping, the device comprising: a sheet support jig having a sheet facing surface facing the sheet when applied to the device ; a spatula holding member that holds a base end portion of the spatula and cantilever-supports the spatula; a moving mechanism for moving the spatula holding member together with the spatula ; and a controller , wherein the sheet support jig has a groove recessed in the sheet facing surface , the groove includes a receiving portion and a wiping portion continuous in a groove extending direction (X), and the wiping portion has a groove width smaller than that of the receiving portion and substantially equal to an outer dimension of the tip of the spatula , and the controller is configured to drive the moving mechanism so as to position the spatula on the opposite side of the sheet supporting jig with respect to the sheet , in a posture that the spatula extends parallel to the groove extending direction (X) and overlaps the groove when viewed in a normal direction (Z) of the sheet facing surface , move the spatula in the normal direction (Z) so that the tip of the spatula is received in the receiving portion by pressing the sheet against the groove with the spatula , and move the spatula in the groove extending direction (X) so that the tip of the spatula passes through the wiping portion . a sheet support jig having a sheet facing surface facing the sheet when applied to the device ; a spatula holding member that holds a base end portion of the spatula and cantilever-supports the spatula; a moving mechanism for moving the spatula holding member together with the spatula ; and a controller , wherein the sheet support jig has a groove recessed in the sheet facing surface , the groove includes a receiving portion and a wiping portion continuous in a groove extending direction (X), and the wiping portion has a groove width smaller than that of the receiving portion and substantially equal to an outer dimension of the tip of the spatula , and the controller is configured to drive the moving mechanism so as to position the spatula on the opposite side of the sheet supporting jig with respect to the sheet , in a posture that the spatula extends parallel to the groove extending direction (X) and overlaps the groove when viewed in a normal direction (Z) of the sheet facing surface , move the spatula in the normal direction (Z) so that the tip of the spatula is received in the receiving portion by pressing the sheet against the groove with the spatula , and move the spatula in the groove extending direction (X) so that the tip of the spatula passes through the wiping portion .
A refrigerator comprising a body ; a refrigeration cabin which is provided in the body and wherein the foodstuffs to be cooled are placed; a door which isolates the refrigeration cabin from the outer environment; a UV light source which has an active position where the UV light source emits light onto the foodstuffs and a passive position where there is no light emitted; and a compartment wherein the UV light emitted by the UV light source is sent onto the foodstuffs, at least one temperature sensor which is disposed in the compartment and which measures the surface temperature of the foodstuffs; characterized by a heating member which has an open position where the surface temperature of the foodstuff is increased according to the information received from the temperature sensor and a closed position where there is no heating; and a control unit which enables the heating member and the UV light source to be controlled according to the data received from the temperature sensor , and a timer which enables the calculation of the time the UV light source is in the active position, and the control unit which enables the UV light source to be switched to the passive position when the target UV application time predetermined by the manufacturer of the refrigerator is completed.
A mixture comprising styrene maleic anhydride copolymer amic acid, cyanuric acid, and melamine.
An autonomous driving system, configured in a vehicle, wherein the system comprises: a plurality of sensor combinations, wherein each of the plurality of sensor combinations comprises at least one sensor; a plurality of edge nodes, wherein the plurality of edge nodes are in a one-to-one correspondence with the plurality of sensor combinations, and a first edge node in the plurality of edge nodes is configured to determine first perception information of the vehicle based on data collected by a first sensor combination corresponding to the first edge node; and a central node connected to the plurality of edge nodes, wherein the central node is configured to delegate a first state decision function to the first edge node, so that the first edge node determines that the vehicle enters a first state or determines a first driving policy of the vehicle in the first state by executing the first state decision function, and execution of the first state decision function requires at least the first perception information. a plurality of sensor combinations, wherein each of the plurality of sensor combinations comprises at least one sensor; a plurality of edge nodes, wherein the plurality of edge nodes are in a one-to-one correspondence with the plurality of sensor combinations, and a first edge node in the plurality of edge nodes is configured to determine first perception information of the vehicle based on data collected by a first sensor combination corresponding to the first edge node; and a central node connected to the plurality of edge nodes, wherein the central node is configured to delegate a first state decision function to the first edge node, so that the first edge node determines that the vehicle enters a first state or determines a first driving policy of the vehicle in the first state by executing the first state decision function, and execution of the first state decision function requires at least the first perception information.
A method of manufacturing a semiconductor device, comprising: forming a catalyst film over an insulator ; growing a first graphene layer and a second graphene layer originating from the catalyst film ; and forming a source electrode and a drain electrode in contact with the first graphene layer and the second graphene layer , over the insulator ; wherein: the first graphene layer is grown from the upper surface of the catalyst film and the second graphene layer is grown from the lower surface of the catalyst film . forming a catalyst film over an insulator ; growing a first graphene layer and a second graphene layer originating from the catalyst film ; and forming a source electrode and a drain electrode in contact with the first graphene layer and the second graphene layer , over the insulator ; wherein: the first graphene layer is grown from the upper surface of the catalyst film and the second graphene layer is grown from the lower surface of the catalyst film .
A lane change method , comprising the following steps: receiving condition information, the condition information comprising velocity information of a current vehicle, state information of an adjacent vehicle, and lane information (S102); with the condition information as an input to a neural network, processing the condition information by means of the neural network, to obtain an initial lane change strategy (S104); and correcting the initial lane change strategy based on a predetermined rule and the condition information, to generate and output a corrected lane change strategy (S 106), characterized in that the predetermined rule comprises: a velocity difference suppression rule, whereby when a difference between a desired velocity of the current vehicle and a velocity of a front vehicle in the lane where the current vehicle is located is above a first predetermined value, increasing a probability of performing lane change to an adjacent lane and reducing a probability of keeping the original lane in the initial lane change strategy. receiving condition information, the condition information comprising velocity information of a current vehicle, state information of an adjacent vehicle, and lane information (S102); with the condition information as an input to a neural network, processing the condition information by means of the neural network, to obtain an initial lane change strategy (S104); and correcting the initial lane change strategy based on a predetermined rule and the condition information, to generate and output a corrected lane change strategy (S 106), characterized in that the predetermined rule comprises: a velocity difference suppression rule, whereby when a difference between a desired velocity of the current vehicle and a velocity of a front vehicle in the lane where the current vehicle is located is above a first predetermined value, increasing a probability of performing lane change to an adjacent lane and reducing a probability of keeping the original lane in the initial lane change strategy.
Current source contacting apparatus for electrically contacting one or a plurality of electric current sources , in particular for electrically interconnecting at least two electric current sources , in particular battery, rechargeable battery or fuel cell units, wherein the current source contacting apparatus comprises at least one contact unit (3a, 3b, 3c; 3) formed from a metal-infiltrated ceramic and serving for electrically contacting at least one contact element (4a, 4b, 4a', 4b'; 4) of an electric current source , and the at least one metal-infiltrated ceramic contact unit (3a, 3b, 3c; 3) has a metallic coating , which partly or completely covers the surface of the metal-infiltrated ceramic contact unit (3a, 3b, 3c; 3) characterized in that the surface of the metallic coating is partly or completely covered with an anti-corrosion protective layer.
Method for the manufacture of a packed product , comprising the steps of: a) bringing a product into a superheated steam atmosphere with an O 2 content of maximum 10 vol.-%, a pressure of between 950 mbar and 1100 mbar and a temperature of at least 100°C, b) making available a packing container in the superheated steam atmosphere and filling the packing container with a predetermined quantity of the product , wherein a residual volume of the packing container not filled with product is filled with the superheated steam atmosphere , c) replacing at least 50% of the residual volume of superheated steam atmosphere in the packing container by a sterile inert gas, by means of a gas supply pipe , d) sealing the packing container , and e) cooling the packing container and the product contained therein, characterized in that in step c) the gas supply pipe , as the result of a relative motion between the gas supply pipe and the packing container , immerges into the packing container , so that a gas discharge opening of the gas supply pipe is located in the region of a bottom of the packing container , nearer to the bottom than to an open seal opening of the packing container . a) bringing a product into a superheated steam atmosphere with an O 2 content of maximum 10 vol.-%, a pressure of between 950 mbar and 1100 mbar and a temperature of at least 100°C, b) making available a packing container in the superheated steam atmosphere and filling the packing container with a predetermined quantity of the product , wherein a residual volume of the packing container not filled with product is filled with the superheated steam atmosphere , c) replacing at least 50% of the residual volume of superheated steam atmosphere in the packing container by a sterile inert gas, by means of a gas supply pipe , d) sealing the packing container , and e) cooling the packing container and the product contained therein,
A beverage producing apparatus comprising an extracting apparatus configured to extract a beverage liquid from an extraction target, said beverage producing apparatus comprising a housing configured to form an exterior of the beverage producing apparatus, wherein the extracting apparatus includes an extraction container in which the extraction target and a liquid are stored, and a driving unit configured to move the extraction container when extracting the beverage liquid, and the housing includes a first transmissive portion configured to make at least a part of the extraction container visible from an outside, wherein the driving unit comprises an upper unit with a first operation unit comprising a first holding member , a middle unit with a support unit that supports the extraction container and a lower unit with a second operation unit comprising a second holding member , wherein the middle unit further includes a mechanism that is configured to rotate the support unit about a shaft in the longitudinal direction using a motor as a driving source to turn the extraction container upside down between an erect posture and an inverted posture after the first holding member being moved to a raised position and the second holding member being moved to a lowered position, when the extract container extracts the beverage liquid. a housing configured to form an exterior of the beverage producing apparatus, wherein the extracting apparatus includes an extraction container in which the extraction target and a liquid are stored, and a driving unit configured to move the extraction container when extracting the beverage liquid, and the housing includes a first transmissive portion configured to make at least a part of the extraction container visible from an outside, wherein the driving unit comprises an upper unit with a first operation unit comprising a first holding member , a middle unit with a support unit that supports the extraction container and a lower unit with a second operation unit comprising a second holding member , wherein the middle unit further includes a mechanism that is configured to rotate the support unit about a shaft in the longitudinal direction using a motor as a driving source to turn the extraction container upside down between an erect posture and an inverted posture after the first holding member being moved to a raised position and the second holding member being moved to a lowered position, when the extract container extracts the beverage liquid.