mhurhangee/patent-ind-claim-en huggingface dataset:
A method for collision avoidance in a hazardous area of a logistics facility for goods , wherein a first distance between a stationary hazardous area monitoring device which is disposed within the hazardous area , and a first sending and receiving device is determined, wherein a second distance between the hazardous area monitoring device and a second sending and receiving device is determined, wherein the first sending and receiving device is disposed on an industrial truck and is connected to a control system of the industrial truck , and the second sending and receiving device is disposed on a movable object, characterized in that a determination is made as to whether the first distance and the second distance are less than or equal to a predeterminable intervention area distance , wherein a collision avoidance action is carried out if both the first distance and the second distance are less than or equal to the predeterminable intervention area distance .
A compound having the following structure: or a stereoisomer or pharmaceutically acceptable salt thereof.
A laminate comprising: a 10 to 500 nm thick biodegradable material layer containing an aliphatic polyester and a water-soluble material layer disposed on at least one side of the biodegradable material layer, wherein the water-soluble material layer is constituted by a 1 to 20 μm thick first film containing a water-soluble polymer (a), a 10 μm to 10 mm thick fabric structure containing a water-soluble polymer (b), and a 1 to 20 μm thick second film containing a water-soluble polymer (c), which are layered in this order from the biodegradable material layer side, the thicknesses being determined as described in the description, and wherein the water-soluble polymer (c) is pullulan. a 10 to 500 nm thick biodegradable material layer containing an aliphatic polyester and a water-soluble material layer disposed on at least one side of the biodegradable material layer, wherein the water-soluble material layer is constituted by a 1 to 20 μm thick first film containing a water-soluble polymer (a), a 10 μm to 10 mm thick fabric structure containing a water-soluble polymer (b), and a 1 to 20 μm thick second film containing a water-soluble polymer (c), which are layered in this order from the biodegradable material layer side, the thicknesses being determined as described in the description, and wherein the water-soluble polymer (c) is pullulan.
A computer based method comprising the steps of: receiving a 3D geometric model of a part, the geometric model comprising a boundary shape; pre-processing the geometric model to produce a variable-void distance field; pre-processing the geometric model to produce a frozen distance field representing the boundary shape; apportioning the geometric model into a plurality of voxels ; adjusting a density value for each voxel of the plurality of voxels according to an optimization process; extracting an extracted iso-surface mesh from the voxel data; generating an extracted iso-surface distance field from the extracted iso-surface mesh; deriving a distance field intersection between the iso-surface distance field and the variable-void distance field; performing a distance field union between the distance field intersection and the frozen distance field; and producing a result iso-surface mesh from the distance field union; wherein pre-processing the geometric model to produce a variable-void distance field further comprises the steps of: defining a variable model comprising a region of the geometric model where a material density is variable; defining a void model comprising a region of the geometric model where material is absent; subtracting the void model from the variable model to create a variable-void model; and generating the variable-void distance field from the variable-void model. receiving a 3D geometric model of a part, the geometric model comprising a boundary shape; pre-processing the geometric model to produce a variable-void distance field; pre-processing the geometric model to produce a frozen distance field representing the boundary shape; apportioning the geometric model into a plurality of voxels ; adjusting a density value for each voxel of the plurality of voxels according to an optimization process; extracting an extracted iso-surface mesh from the voxel data; generating an extracted iso-surface distance field from the extracted iso-surface mesh; deriving a distance field intersection between the iso-surface distance field and the variable-void distance field; performing a distance field union between the distance field intersection and the frozen distance field; and producing a result iso-surface mesh from the distance field union; wherein pre-processing the geometric model to produce a variable-void distance field further comprises the steps of: defining a variable model comprising a region of the geometric model where a material density is variable; defining a void model comprising a region of the geometric model where material is absent; subtracting the void model from the variable model to create a variable-void model; and generating the variable-void distance field from the variable-void model. defining a variable model comprising a region of the geometric model where a material density is variable; defining a void model comprising a region of the geometric model where material is absent; subtracting the void model from the variable model to create a variable-void model; and generating the variable-void distance field from the variable-void model.
A method of synchronizing a timing of a wireless communication device with a network node , the wireless communication device configured to operate according to a frequency hopping pattern defined by the network node , the frequency hopping pattern comprising a dwell time representing a time interval between frequency hops, and the wireless communication device configured to receive downlink signals from the network node and to transmit uplink signals to the network node , the method performed by the wireless communication device and comprising: determining a maximum timing deviation responsive to a sleep time after the wireless communication device wakes up from a sleep mode, the sleep time representing a duration of the sleep mode; computing an estimated time overlap from a difference between the dwell time and the maximum timing deviation; selecting a first synchronization procedure when the estimated time overlap exceeds a threshold, wherein the first synchronization procedure assumes a known timing position of the wireless communication device within the frequency hopping pattern; selecting a second synchronization procedure when the estimated time overlap is less than or equal to the threshold, wherein the second synchronization procedure assumes an unknown timing position of the wireless communication device within the frequency hopping pattern; and synchronizing the timing of the wireless communication device using the selected synchronization procedure. determining a maximum timing deviation responsive to a sleep time after the wireless communication device wakes up from a sleep mode, the sleep time representing a duration of the sleep mode; computing an estimated time overlap from a difference between the dwell time and the maximum timing deviation; selecting a first synchronization procedure when the estimated time overlap exceeds a threshold, wherein the first synchronization procedure assumes a known timing position of the wireless communication device within the frequency hopping pattern; selecting a second synchronization procedure when the estimated time overlap is less than or equal to the threshold, wherein the second synchronization procedure assumes an unknown timing position of the wireless communication device within the frequency hopping pattern; and synchronizing the timing of the wireless communication device using the selected synchronization procedure.
A computer implemented method for colour video processing, the method comprising: receiving a CFA image from a CFA imaging device , wherein the CFA image comprises CFA image pixels defining a plurality of image regions, each image region having at least one pixel of a first colour and at least one pixel of a second colour, at least one image region representing a portion of an object; receiving a full colour image from a colour imaging device , wherein the full colour image represents the portion of the object; storing the full colour image in a memory ; isolating pixels of the first colour of the CFA image to generate a first colour channel comprising pixels of the first colour channel; isolating pixels of the first colour of the full colour image to generate a second colour channel comprising pixels of the second colour channel; processing the pixels of the first colour channel using a first computer vision algorithm to generate first image metadata; processing the pixels of the second colour channel using the first computer vision algorithm to generate second image metadata; and generating processed data using the first image metadata and/or the second image metadata, the processed data comprising a plurality of data points representing the object. receiving a CFA image from a CFA imaging device , wherein the CFA image comprises CFA image pixels defining a plurality of image regions, each image region having at least one pixel of a first colour and at least one pixel of a second colour, at least one image region representing a portion of an object; receiving a full colour image from a colour imaging device , wherein the full colour image represents the portion of the object; storing the full colour image in a memory ; isolating pixels of the first colour of the CFA image to generate a first colour channel comprising pixels of the first colour channel; isolating pixels of the first colour of the full colour image to generate a second colour channel comprising pixels of the second colour channel; processing the pixels of the first colour channel using a first computer vision algorithm to generate first image metadata; processing the pixels of the second colour channel using the first computer vision algorithm to generate second image metadata; and generating processed data using the first image metadata and/or the second image metadata, the processed data comprising a plurality of data points representing the object.
A method for performing service function chaining by a device or system , the method comprising the steps of: receiving a packet , wherein the packet comprises a source media access control, MAC, address ; storing , in a first field of bits of the source MAC address of the packet , a first value indicating a tunnel identifier of the packet , wherein the tunnel identifier indicates a source device associated with the packet ; storing , in a second field of bits of the source MAC address , a second value indicating a service function chain of the packet ; storing , in a third field of bits of the source MAC address , an index value indicating a service function of the service function chain of the packet , wherein the service function chain is indicated by the stored second value ; storing , in a fourth field of bits of the source MAC address , an action value indicating an action for the packet ; and transmitting the packet to the source device indicated by the tunnel identifier , responsive to the packet completing the service function chain . receiving a packet , wherein the packet comprises a source media access control, MAC, address ; storing , in a first field of bits of the source MAC address of the packet , a first value indicating a tunnel identifier of the packet , wherein the tunnel identifier indicates a source device associated with the packet ; storing , in a second field of bits of the source MAC address , a second value indicating a service function chain of the packet ; storing , in a third field of bits of the source MAC address , an index value indicating a service function of the service function chain of the packet , wherein the service function chain is indicated by the stored second value ; storing , in a fourth field of bits of the source MAC address , an action value indicating an action for the packet ; and transmitting the packet to the source device indicated by the tunnel identifier , responsive to the packet completing the service function chain .
A network topology collecting method, in a system comprising a master device and slave devices sorted into a plurality of groups, the method comprising the steps of: generating topology collection messages corresponding to a slave device present in a network, by the master device; setting a flag of a region of the topology collection messages , corresponding to the slave device, and transmitting the topology collection messages in broadcast, by the master device; checking whether a flag is set in a region of the slave device among a plurality of regions of the topology collection messages upon receiving the topology collection messages from the master device, by the slave device; and transmitting by the slave device topology collection messages to a next slave device or allocating an identifier of the slave device to a response message and transmitting the response message to a next slave device, according to the result of the checking. generating topology collection messages corresponding to a slave device present in a network, by the master device; setting a flag of a region of the topology collection messages , corresponding to the slave device, and transmitting the topology collection messages in broadcast, by the master device; checking whether a flag is set in a region of the slave device among a plurality of regions of the topology collection messages upon receiving the topology collection messages from the master device, by the slave device; and transmitting by the slave device topology collection messages to a next slave device or allocating an identifier of the slave device to a response message and transmitting the response message to a next slave device, according to the result of the checking.
A lighting module for a refrigeration appliance , comprising: a housing comprising a light outlet , wherein the housing comprises a supporting edge surrounding the light outlet and an inner frame disposed along the supporting edge , and the inner frame protrudes from the supporting edge in a direction away from the light outlet ; a light source located in the housing , wherein the light source comprises a light emitting element and a substrate bearing the light emitting element ; and a light guide plate , wherein the light guide plate is supported on the supporting edge and comprises a first end surface facing the inner frame , the housing comprises a mounting portion located in a space defined by the first end surface of the light guide plate , the supporting edge , and the inner frame , and the substrate is mounted on the mounting portion , so that the light emitting element and the first end surface of the light guide plate are disposed facing each other, the housing comprises a frame and a cover , the frame comprises the light outlet , the supporting edge , and the inner frame , and the cover is connected to the frame, and a snap-fit connection structure is provided between the cover and the inner frame , characterized in that the substrate is provided with an avoidance groove corresponding to the snap-fit connection structure, so that the snap-fit connection structure passes through the substrate to connect the cover and the frame . a housing comprising a light outlet , wherein the housing comprises a supporting edge surrounding the light outlet and an inner frame disposed along the supporting edge , and the inner frame protrudes from the supporting edge in a direction away from the light outlet ; a light source located in the housing , wherein the light source comprises a light emitting element and a substrate bearing the light emitting element ; and a light guide plate , wherein the light guide plate is supported on the supporting edge and comprises a first end surface facing the inner frame , the housing comprises a mounting portion located in a space defined by the first end surface of the light guide plate , the supporting edge , and the inner frame , and the substrate is mounted on the mounting portion , so that the light emitting element and the first end surface of the light guide plate are disposed facing each other, the housing comprises a frame and a cover , the frame comprises the light outlet , the supporting edge , and the inner frame , and the cover is connected to the frame, and a snap-fit connection structure is provided between the cover and the inner frame , characterized in that the substrate is provided with an avoidance groove corresponding to the snap-fit connection structure, so that the snap-fit connection structure passes through the substrate to connect the cover and the frame .
A wearable device comprising: a cover having a front surface configured to removably mount a separate display device ; a support configured to attach the wearable device to a head of a user; lens units (811a-b) disposed on portions of the front surface corresponding to left and right eyes of the user; and one or more conductive parts (812a-e) disposed on the front surface of the cover and configured to contact the separate display device . a cover having a front surface configured to removably mount a separate display device ; a support configured to attach the wearable device to a head of a user; lens units (811a-b) disposed on portions of the front surface corresponding to left and right eyes of the user; and one or more conductive parts (812a-e) disposed on the front surface of the cover and configured to contact the separate display device .
A composition for formation of an extrusion-resistant sealing member, comprising: an aromatic polymer; and a crosslinking compound, wherein the crosslinking compound has a structure according to formula (II) below: wherein A is an arene moiety having a molecular weight of less than 10,000 g/mol, R 1 is selected from a group consisting of hydroxide (-OH), amine (-NH 2 ), halide, ether, ester, or amide, and x = 2.0 to 6.0. an aromatic polymer; and a crosslinking compound, wherein the crosslinking compound has a structure according to formula (II) below: wherein A is an arene moiety having a molecular weight of less than 10,000 g/mol, R 1 is selected from a group consisting of hydroxide (-OH), amine (-NH 2 ), halide, ether, ester, or amide, and x = 2.0 to 6.0.
A mini steering mechanism used in the seats of the construction machines that require direction control with a steering wheel such as graders, rubber wheeled loaders, backhoe loaders, compactors and rubber wheeled excavators, the said seats being equipped with a right console and left console , the mini steering mechanism comprising a right joystick (control lever) on the right console for controlling the attachments of the construction machine, characterized in that the mini steering mechanism comprises; - a rotating support body in the left console , - a mini steering wheel located on the support body , which provides the steering process for the maneuvering of the construction machine by positioning on the left console by means of the rotating movement of the support body , - a left joystick (control lever) located on the support body , which provides the control process for the attachments of the construction machine by positioned on the left console by means of the rotating movement of the support body . - a rotating support body in the left console , - a mini steering wheel located on the support body , which provides the steering process for the maneuvering of the construction machine by positioning on the left console by means of the rotating movement of the support body , - a left joystick (control lever) located on the support body , which provides the control process for the attachments of the construction machine by positioned on the left console by means of the rotating movement of the support body .
Aircraft engine nacelle comprising an air inlet (E) comprising a lip , a tubular air inlet piece and an ice protection system , said ice protection system comprising an anti-icing means wholly or partly covering the lip and a de-icing means covering the tubular air inlet piece and comprising a controller configured to acquire a current temperature value, characterized in that : - the anti-icing means is DC powered by a first electrical energy source and the de-icing means is powered by second electrical energy source , - the current temperature value acquired by the controller is the current value of the total air temperature (TATc), and - the controller is configured to: ∘ control the second electrical energy source as a function of the current total air temperature value (TATc), and ∘ control the activation of the first electrical energy source , prior to the activation of the second electrical energy source as a function of the current total air temperature value (TATc). - the anti-icing means is DC powered by a first electrical energy source and the de-icing means is powered by second electrical energy source , - the current temperature value acquired by the controller is the current value of the total air temperature (TATc), and - the controller is configured to: ∘ control the second electrical energy source as a function of the current total air temperature value (TATc), and ∘ control the activation of the first electrical energy source , prior to the activation of the second electrical energy source as a function of the current total air temperature value (TATc). ∘ control the second electrical energy source as a function of the current total air temperature value (TATc), and ∘ control the activation of the first electrical energy source , prior to the activation of the second electrical energy source as a function of the current total air temperature value (TATc).