mhurhangee/patent-ind-claim-en huggingface dataset:
A control device with a sensor , which has a sensor unit for detecting objects and evaluation means in which an error-free evaluation of sensor signals of the sensor unit takes place in order to generate an output signal, the control device forming a positioning device which is designed for positioning a storage and retrieval unit, an electric overhead conveyor or a transverse transfer carriage, characterised in that the evaluation means have an evaluation unit for evaluating the sensor signals and a monitoring unit for monitoring the evaluation unit , the monitoring unit being formed by a second evaluation unit , in that the evaluation means have an evaluation unit for evaluating the sensor signals and a monitoring unit for monitoring the evaluation unit , the monitoring unit being formed by a second evaluation unit, the evaluation unit and the monitoring unit being formed by identically designed computer units which monitor one another cyclically and are connected by a bidirectional line and monitor one another with regard to whether they generate identical output signals, and generate a corresponding error message when an error occurs, in that two diversely designed data interfaces which are constructed from different components or have different interface parameters and pin assignments are provided, a first data interface receiving the output signal from the evaluation unit and outputting it to an external unit via a first data line , and wherein the second data interface receives the output signal from the monitoring unit and outputs it to the external unit via a second data line , and wherein, if an error occurs, the output signal is output to the external unit with the error message, whereby the external unit fulfils safety-relevant functions and ensures fail-safe processing of the output signals, and in that positions and/or speeds of objects are detected with the sensor unit , and in that the output signals are formed by position signals and/or speed signals.
A display device (DD) comprising: a window member (WM, WM1, WM2, WM3, WM4, WM5, WM10, WM20, WM 20-1, WM30, WM30-1); and a display module (DM, DM10) coupled to the window member (WM, WM1, WM2, WM3, WM4, WM5, WM10, WM20, WM 20-1, WM30, WM30-1), the window member (WM, WM1, WM2, WM3, WM4, WM5, WM10, WM20, WM 20-1, WM30, WM30-1) comprising: a first resin layer (PL1, PL10) on the display module (DM, DM10), the first resin layer (PL1, PL10) having a first elongation, a first thickness (T1), and a first hardness; and a second resin layer (PL2, PL20) on the first resin layer (PL1, PL10), the second resin layer (PL2, PL20) having a second elongation smaller than the first elongation, a second thickness (T2) greater than the first thickness (T1), and a second hardness greater than the first hardness, and characterized in that the first thickness (T1) is in a range from 150 micrometers to 250 micrometers. a window member (WM, WM1, WM2, WM3, WM4, WM5, WM10, WM20, WM 20-1, WM30, WM30-1); and a display module (DM, DM10) coupled to the window member (WM, WM1, WM2, WM3, WM4, WM5, WM10, WM20, WM 20-1, WM30, WM30-1), the window member (WM, WM1, WM2, WM3, WM4, WM5, WM10, WM20, WM 20-1, WM30, WM30-1) comprising: a first resin layer (PL1, PL10) on the display module (DM, DM10), the first resin layer (PL1, PL10) having a first elongation, a first thickness (T1), and a first hardness; and a second resin layer (PL2, PL20) on the first resin layer (PL1, PL10), the second resin layer (PL2, PL20) having a second elongation smaller than the first elongation, a second thickness (T2) greater than the first thickness (T1), and a second hardness greater than the first hardness, and a first resin layer (PL1, PL10) on the display module (DM, DM10), the first resin layer (PL1, PL10) having a first elongation, a first thickness (T1), and a first hardness; and a second resin layer (PL2, PL20) on the first resin layer (PL1, PL10), the second resin layer (PL2, PL20) having a second elongation smaller than the first elongation, a second thickness (T2) greater than the first thickness (T1), and a second hardness greater than the first hardness, and characterized in that the first thickness (T1) is in a range from 150 micrometers to 250 micrometers.
An electronic device comprising: a WiFi module (630; 1002) configured to perform WiFi communication; an application processor (610; 1000) configured to process WiFi communication data by controlling the WiFi module (630; 1002) in an active state; and a communication processor (620; 1001) characterized in that , the communication processor is configured to receive a first signal from the application processor (610; 1000) informing that the application processor (610; 1000) is to enter an inactive state from the active state and to process WiFi communication data by controlling the WiFi module (630; 1002) while the application processor (610; 1000) is in the inactive state, in response to the first signal. a WiFi module (630; 1002) configured to perform WiFi communication; an application processor (610; 1000) configured to process WiFi communication data by controlling the WiFi module (630; 1002) in an active state; and a communication processor (620; 1001) characterized in that , the communication processor is configured to receive a first signal from the application processor (610; 1000) informing that the application processor (610; 1000) is to enter an inactive state from the active state and to process WiFi communication data by controlling the WiFi module (630; 1002) while the application processor (610; 1000) is in the inactive state, in response to the first signal.
An audio processing circuit comprises: a time-to-frequency domain circuit configured to convert a primary audio signal and a secondary audio signal in a time-domain form and output frequency spectrum representations thereof; a cross-fade magnitude circuit configured to obtain a cross-faded magnitude spectrum representation from at least one of the frequency spectrum representations; a cross-fade phase circuit configured to obtain a separate cross-faded phase spectrum representation from at least one of the frequency spectrum representations; wherein the audio processing circuit is characterised in that the cross-fade phase circuit comprises a mixing circuit configured to mix the frequency spectrum representations of the primary audio signal and of the secondary audio signal with a time-varying complex spectrum mixing factor to produce a cross-faded signal , and to derive the phase spectrum representation of an output of the cross-faded signal to produce a cross-faded phase spectrum representation ; and the audio processing circuit comprises a frequency-to-time domain circuit configured to receive and combine the separate cross-faded magnitude and cross-faded phase spectrum representations and output a time domain signal . a time-to-frequency domain circuit configured to convert a primary audio signal and a secondary audio signal in a time-domain form and output frequency spectrum representations thereof; a cross-fade magnitude circuit configured to obtain a cross-faded magnitude spectrum representation from at least one of the frequency spectrum representations; a cross-fade phase circuit configured to obtain a separate cross-faded phase spectrum representation from at least one of the frequency spectrum representations; wherein the audio processing circuit is characterised in that the cross-fade phase circuit comprises a mixing circuit configured to mix the frequency spectrum representations of the primary audio signal and of the secondary audio signal with a time-varying complex spectrum mixing factor to produce a cross-faded signal , and to derive the phase spectrum representation of an output of the cross-faded signal to produce a cross-faded phase spectrum representation ; and the audio processing circuit comprises a frequency-to-time domain circuit configured to receive and combine the separate cross-faded magnitude and cross-faded phase spectrum representations and output a time domain signal .
Method for controlling the speed of a vehicle on a lane, the method comprising the following steps: - acquiring (E10) at least one first item of information relating to the lane and at least one second item of information relating to the external conditions; - determining (E20) a lane width and a lane length that is visible to a driver of said vehicle, on the basis of said at least one first item of information; - calculating (E30) a suitable speed for the vehicle depending on a maximum speed authorized on said lane, on said determined lane width and depending on said determined visible lane length and/or on the external conditions; - adjusting (E40) the speed of the vehicle depending on the calculated speed, during the calculating step (E30), the speed is determined from a function V = V legal - ( a / W + b / L ), where V legal is the maximum speed authorized on said lane, W is the lane width and L is the visible lane length that were determined during the determining step (E20), a and b are predetermined coefficients. - acquiring (E10) at least one first item of information relating to the lane and at least one second item of information relating to the external conditions; - determining (E20) a lane width and a lane length that is visible to a driver of said vehicle, on the basis of said at least one first item of information; - calculating (E30) a suitable speed for the vehicle depending on a maximum speed authorized on said lane, on said determined lane width and depending on said determined visible lane length and/or on the external conditions; - adjusting (E40) the speed of the vehicle depending on the calculated speed, during the calculating step (E30), the speed is
A system for generating augmented images, comprising at least one image-recording device , at least one analysis module connected to the image-recording device , at least one display device connected to the analysis module , wherein the image-recording device is configured to transmit images, in particular image data, to the analysis module , and wherein the analysis module is configured to transmit control data (S2) to the display device , wherein the control data (S2) comprise the image data and instruction data for the display of at least one augmentation in an image, wherein the display device is configured to reproduce a recorded image and an associated augmentation on the basis of the control data (S2), wherein the system further comprises an expansion module , which is arranged in the transfer path between the analysis module and the display device , wherein the analysis module is further configured to generate at least one piece of reliability information (R2) for each image, wherein the reliability information (R2) comprises data about a component of the system that detects and/or calculates the geometric or radiometric relationship between the image-recording device and the environment, and wherein the expansion module is configured to receive the control data (S2) and the reliability information (R2) from the analysis module and generate modified control data (S2b) on the basis of the control data (S2) and of the reliability information (R2) and transmit the modified control data to the display device , wherein the expansion module comprises a state module and an animation module , wherein the state module is configured to receive the reliability information (R2), select a piece of state information (Z) from a plurality of, in particular four, pieces of state information, and transfer the selected state information (Z) to the animation module .
A resource allocation method, comprising: sending , by a network device, first information to user equipment, wherein the first information is used to indicate uplink resources corresponding to autonomous uplink transmission performed by the user equipment, wherein the uplink resources corresponding to autonomous uplink transmission performed by the user equipment are uplink resources that the network device plans to allocate for the autonomous uplink transmission; wherein the first information comprises pattern information of a first bitmap of bits that indicate the uplink resources planned to allocate for autonomous uplink transmission, and wherein each bit corresponds to an uplink resource of the uplink resources and is set when the resource is planned to be allocated; the method further comprising: sending , by the network device, second information to the user equipment, wherein the second information is used to indicate a resource that is in the uplink resources and that is actually used by the user equipment to perform autonomous uplink transmission; wherein the second information comprises activation position information and a second resource size; or the second information comprises deactivation position information and a second resource size. sending , by a network device, first information to user equipment, wherein the first information is used to indicate uplink resources corresponding to autonomous uplink transmission performed by the user equipment, wherein the uplink resources corresponding to autonomous uplink transmission performed by the user equipment are uplink resources that the network device plans to allocate for the autonomous uplink transmission; wherein the first information comprises pattern information of a first bitmap of bits that indicate the uplink resources planned to allocate for autonomous uplink transmission, and wherein each bit corresponds to an uplink resource of the uplink resources and is set when the resource is planned to be allocated; the method further comprising: sending , by the network device, second information to the user equipment, wherein the second information is used to indicate a resource that is in the uplink resources and that is actually used by the user equipment to perform autonomous uplink transmission; wherein the second information comprises activation position information and a second resource size; or the second information comprises deactivation position information and a second resource size. sending , by the network device, second information to the user equipment, wherein the second information is used to indicate a resource that is in the uplink resources and that is actually used by the user equipment to perform autonomous uplink transmission; wherein the second information comprises activation position information and a second resource size; or the second information comprises deactivation position information and a second resource size.
An end cap for a tubular light source , the tubular light source being configured to be arranged in a lighting fixture comprising at least one socket , wherein the end cap comprises: a housing ; two connector pins at least partly arranged on an outside of the housing and adapted to fit in the socket; and a switch assembly comprising a switch element arranged in between the two connector pins and at least partly protruding from an opening in the housing , characterized in that a first side of the switch element is adapted to fit into a slot in the at least one socket and characterized in that the switch element comprises an embedded conductive element configured to form a conductive path between the connector pins and the tubular light source through an axial rotation of the switch element in relation to the housing as the tubular light source is rotatably mounted in the fixture . a housing ; two connector pins at least partly arranged on an outside of the housing and adapted to fit in the socket; and a switch assembly comprising a switch element arranged in between the two connector pins and at least partly protruding from an opening in the housing , characterized in that a first side of the switch element is adapted to fit into a slot in the at least one socket and characterized in that the switch element comprises an embedded conductive element configured to form a conductive path between the connector pins and the tubular light source through an axial rotation of the switch element in relation to the housing as the tubular light source is rotatably mounted in the fixture .
A kit of modules of a framework, each module comprising at least three struts connected among each other in such a manner as to form a sub-kit of the framework, each strut comprising a first and a second side forming an angle among each other, said kit comprising a set of fixing elements provided for connecting the modules among each other, each module also comprising at least two gussets each placed on two adjacent struts at a height of a junction between those two adjacent struts, each strut being provided with at least a first and a second perforation situated on the first side and applied respectively in the neighborhood of a first and a second end of the strut, said gussets being each time provided with a third perforation , characterized in that the gussets extend essentially in parallel with the second side of the struts, the third perforation being oriented according to a direction which extend across the second side, a first of the fixing elements of said set being housed in the first perforations and a second of the fixing elements of said set being housed in the second perforations of two adjacent modules when they are assembled side by side with the first sides of one of the struts of each of the two modules, which fixing elements being provided for enabling to establish the connection between two adjacent modules when said connection is established among them.
An article having at least one surface, wherein said surface is at least partially coated with a ultra high hydrophobic film having a surface roughness such that the film exhibits a static water contact angle at least equal to 115° and wherein said film is a nanostructured film comprising: - a first layer comprising nanoparticles bound by at least one binder adhering to the surface of the article, characterised in that the binder and the nanoparticles being comprised in said first layer in an amount such that the weight ratio of binder / nanoparticles ranges from 2:1 to 1:15, and - a second layer of an anti-fouling top coat at least partially coating said first layer. - a first layer comprising nanoparticles bound by at least one binder adhering to the surface of the article, characterised in that the binder and the nanoparticles being comprised in said first layer in an amount such that the weight ratio of binder / nanoparticles ranges from 2:1 to 1:15, and - a second layer of an anti-fouling top coat at least partially coating said first layer.
A method for predicting, at a given instant, the trajectory of a hostile aircraft (H) with respect to vessels (HV, C1, C2, F), said hostile aircraft (H) having a heading angle Ψ at the considered instant and being located at a distance D from a predicted objective point ( O ) that corresponds to the vessel (HV, C1, C2, F) with the highest likelihood of being targeted by the aircraft (H) as a function of the flight parameters of said aircraft at the considered instant or that is the barycentre of the positions of the vessels (HV, C1, C2, F) likely to be targeted by the hostile aircraft (H), weighted by their likelihood of being targeted by said aircraft, characterised in that the predicted trajectory is defined on the basis of an extrapolation of a given type of trajectory and connects the position of the hostile aircraft to a fictitious point of impact ( I ), the fictitious point of impact being defined, as a function of the predicted objective point ( O ) targeted by the aircraft (H), so as to reduce the curvature of the predicted trajectory taking into account the heading angle Ψ of the aircraft and the distance D between the aircraft and the predicted objective point ( O ) at the considered instant, with the predicted trajectory then being sent to computation means of an air defence missile so as to determine its point of interception with the hostile aircraft (H) on said predicted trajectory.
A baffle for an airfoil vane assembly, comprising: a baffle wall having first and second sides , and a leading end and a trailing end joining the first and second sides , the baffle wall defining a central cavity ; a tail extending from the trailing end of the baffle wall , the tail including at least one feature configured to disturb an airflow surrounding the tail , characterised in that the at least one feature includes at least one peak or trough , wherein the at least one feature further includes at least one cooling hole between a first peak or trough and a second peak or trough of the at least one peak or trough . a baffle wall having first and second sides , and a leading end and a trailing end joining the first and second sides , the baffle wall defining a central cavity ; a tail extending from the trailing end of the baffle wall , the tail including at least one feature configured to disturb an airflow surrounding the tail , characterised in that the at least one feature includes at least one peak or trough , wherein the at least one feature further includes at least one cooling hole between a first peak or trough and a second peak or trough of the at least one peak or trough .
A User Equipment, UE , comprising: a controller configured to stop a first timer configured on a per Single Network Slice Selection Assistance information, S-NSSAI, and Public Land Mobile Network, PLMN, basis, in a case of receipt of a Protocol Data Unit, PDU, SESSION MODIFICATION COMMAND message for a PDU session, the PDU SESSION MODIFICATION COMMAND message including identification information indicating the PDU session, in a case that the UE provided a first S-NSSAI during an establishment procedure of the PDU session, and in a case that the first timer is running for the first S-NSSAI and a PLMN, wherein the S-NSSAI is a unique information for each PLMN.
A wound management system, comprising a surgically acceptable skin adhesive configured to be disposed over a wound; and a surgically acceptable film configured to be repositionably disposed over and in contact with the surgically acceptable skin adhesive, wherein the surgically acceptable film is configured to be repositionably applied after the surgically acceptable skin adhesive is cured, and wherein both the surgically acceptable skin adhesive and the surgically acceptable film cover the wound in use. a surgically acceptable skin adhesive configured to be disposed over a wound; and a surgically acceptable film configured to be repositionably disposed over and in contact with the surgically acceptable skin adhesive, wherein the surgically acceptable film is configured to be repositionably applied after the surgically acceptable skin adhesive is cured, and wherein both the surgically acceptable skin adhesive and the surgically acceptable film cover the wound in use.
Extracorporeal blood treatment machine, preferably dialysis machine , with machine-internal fluidics for a blood treatment fluid and a machine housing at least in sections surrounding the fluidics, wherein the fluidics comprise an input line for fresh blood treatment fluid to a filter, preferably a dialyser , and an output line for used blood treatment fluid from the filter , that are each equipped at their end side with a connection port for releasably coupling the filter to the machine-internal fluidics, wherein the connection port of the input line and the connection port of the output line each are formed as a connection coupling integrated into the machine housing , and the connection couplings are arranged in a concave recess formed or arranged at an outer side in the machine housing , characterised in that the recess is configured with regard to its size and geometry such that it forms a reception trough for the filter , the dimensioning of which is adapted to that exact filter specifically intended for the blood treatment machine, such that using an unsuitable filter is preventable with corresponding unsuitable dimensions.