mhurhangee/patent-ind-claim-en huggingface dataset:
System comprising a touch screen, a trackball and a trackball detector , wherein the trackball comprises a support structure and a ball , wherein the touch screen comprises a display and a touch sensor with a touch sensor surface , wherein the touch sensor surface is superposed onto a surface of the display, wherein the touch sensor is configured to detect a position of a touch of an object on the touch sensor surface , wherein the touch sensor surface is flat, wherein the support structure comprises an arrangement means and a support means , wherein the arrangement means is configured to arrange the support structure on the touch sensor such that the centre point of the ball has a fixed distance to the touch sensor surface , wherein the support means rotatably supports the ball in the support structure , wherein the trackball is arranged on the touch sensor such that the ball is rotatably supported over the touch sensor surface , wherein a surface of the ball comprises a pattern of detection portions , and wherein the trackball detector is configured to detect the rotational movement and/or the rotational orientation of the ball on the basis of a movement and/or a position of at least one of the detection portions detected on the touch sensor surface .
Inlet coating for an outer air seal of a turbomachine, in particular an aircraft engine, comprising a segment-shaped substrate which supports a honeycomb structure having an inlet surface which faces rotor blades of a rotor of the turbomachine, characterized in that the inlet coating is formed with a radial thickness of the honeycomb structure that varies in the peripheral direction.
A method of increasing the production of at least one pyruvate derived product during microbial fermentation, the method comprising: a) providing a gaseous substrate comprising CO to a bioreactor comprising a culture of at least one acetogenic carboxydotrophic microorganism in a liquid nutrient medium to produce at least one pyruvate derived product and at least one acetyl-CoA derived product; and b) increasing the concentration of at least one nutrient in the liquid nutrient medium to a concentration above the cellular requirements of the at least one acetogenic carboxydotrophic microorganism such that the production of at least one pyruvate derived product is increased, said nutrient selected from the group consisting of: 1) vitamin B1; 2) vitamin B5; 3) vitamin B7 and mixtures thereof; and wherein (a) the concentration of vitamin B1 in the liquid nutrient medium varies from 20 to 500 μg/g biomass produced; or (b) the concentration of vitamin B5 in the liquid nutrient medium varies from 100 to 4000 μg/g biomass produced; or (c) the concentration of vitamin B7 in the liquid nutrient medium varies from 100 to 4000 μg/g biomass produced. a) providing a gaseous substrate comprising CO to a bioreactor comprising a culture of at least one acetogenic carboxydotrophic microorganism in a liquid nutrient medium to produce at least one pyruvate derived product and at least one acetyl-CoA derived product; and b) increasing the concentration of at least one nutrient in the liquid nutrient medium to a concentration above the cellular requirements of the at least one acetogenic carboxydotrophic microorganism such that the production of at least one pyruvate derived product is increased, said nutrient selected from the group consisting of: 1) vitamin B1; 2) vitamin B5; 3) vitamin B7 and mixtures thereof; 1) vitamin B1; 2) vitamin B5; 3) vitamin B7 and mixtures thereof; (a) the concentration of vitamin B1 in the liquid nutrient medium varies from 20 to 500 μg/g biomass produced; or (b) the concentration of vitamin B5 in the liquid nutrient medium varies from 100 to 4000 μg/g biomass produced; or (c) the concentration of vitamin B7 in the liquid nutrient medium varies from 100 to 4000 μg/g biomass produced.
Tool for cutting a longitudinal object, comprising: - a grip extending between a first side and a second side in a first direction (x), - a blade arranged in a channel within the grip , wherein the channel and the blade are arranged such that the longitudinal object is receivable and guidable toward the blade by the channel , wherein, in the first direction (x), the channel is arranged closer to the first side than to the second side of the grip , - a guiding element , which is attached to the grip at an attachment point , wherein the attachment point is, in the first direction (x), located between a channel entrance and the first side , wherein the guiding element is attached to the grip in a foldable manner such that if folded out the guiding element extends from the grip to guide the longitudinal object toward the channel entrance , characterised in that the guiding element has a guiding surface that is in line with a channel surface of the channel if the guiding element is folded out. - a grip extending between a first side and a second side in a first direction (x), - a blade arranged in a channel within the grip , wherein the channel and the blade are arranged such that the longitudinal object is receivable and guidable toward the blade by the channel , wherein, in the first direction (x), the channel is arranged closer to the first side than to the second side of the grip , - a guiding element , which is attached to the grip at an attachment point , wherein the attachment point is, in the first direction (x), located between a channel entrance and the first side , wherein the guiding element is attached to the grip in a foldable manner such that if folded out the guiding element extends from the grip to guide the longitudinal object toward the channel entrance , characterised in that the guiding element has a guiding surface that is in line with a channel surface of the channel if the guiding element is folded out.
A method of wireless communication at a user equipment, UE , the method comprising: connecting to a source cell via a first beam; connecting to a target cell via a second beam during a Dual Active Protocol Stack handover from the source cell to the target cell ; determining that a first transmission using the first beam overlaps in time with a second transmission using the second beam; and, in response to determining that the first transmission using the first beam and the second transmission using the second beam overlap in time, performing beam selection between the first beam and the second beam, wherein the performing beam selection further comprises: establishing a time period for prioritizing the target cell over the source cell ; performing beam selection with the target cell over the source cell for the time period; determining whether a prioritization timer corresponding to the time period has expired; and performing beam selection to switch from the target cell to the source cell based on the determination that the prioritization timer has expired. connecting to a source cell via a first beam; connecting to a target cell via a second beam during a Dual Active Protocol Stack handover from the source cell to the target cell ; determining that a first transmission using the first beam overlaps in time with a second transmission using the second beam; and, in response to determining that the first transmission using the first beam and the second transmission using the second beam overlap in time, performing beam selection between the first beam and the second beam, wherein the performing beam selection further comprises: establishing a time period for prioritizing the target cell over the source cell ; performing beam selection with the target cell over the source cell for the time period; determining whether a prioritization timer corresponding to the time period has expired; and performing beam selection to switch from the target cell to the source cell based on the determination that the prioritization timer has expired. establishing a time period for prioritizing the target cell over the source cell ; performing beam selection with the target cell over the source cell for the time period; determining whether a prioritization timer corresponding to the time period has expired; and performing beam selection to switch from the target cell to the source cell based on the determination that the prioritization timer has expired.
An acid-tolerant genetically engineered yeast cell comprising a genetic modification increasing expression of a gene that encodes an enzyme that catalyzes conversion of phosphatidylinositol (PI) and ceramide to inositol phosphorylceramide (IPC) and diacylglycerol (DG) compared to an expression level of a parent cell without the given genetic modification, wherein the enzyme, which catalyzes formation of IPC is AUR1, wherein the AUR1 is a polypeptide having at least 95% of sequence identity with amino acid sequences of SEQ ID NO:1, and wherein the genetic modification is a genetic modification increasing the number of copies of a gene that encodes polypeptides having at least 95% of sequence identity with an amino acid sequence of SEQ ID NO: 1 or genetic modification mutating a regulatory region of the polynucleotide that encodes polypeptides having at least 95% of sequence identity with an amino acid sequence of SEQ ID NO: 1; and further comprising a recombinantly expressed enzyme that catalyzes formation of lactate by comprising a polynucleotide encoding a polypeptide that converts pyruvate to lactate.
An optoelectronic device comprising at least one nanostructure, wherein said nanostructure comprises at least one group III-V compound; wherein a hole patterned mask is present on the substrate wherein said nanostructures grow through the holes of said mask; wherein said nanostructure is a nanowire or nanopyramid, characterised in that the at least one nanostructure is grown epitaxially on the (-201) or plane of an optionally doped β-Ga 2 O 3 substrate. wherein said nanostructure comprises at least one group III-V compound; wherein a hole patterned mask is present on the substrate wherein said nanostructures grow through the holes of said mask; wherein said nanostructure is a nanowire or nanopyramid, characterised in that the at least one nanostructure is grown epitaxially on the (-201) or plane of an optionally doped β-Ga 2 O 3 substrate.
A method of establishing a connection between one or more H(e)NBs and one or more local gateways, L-GWs, in a local network having a structure in which the one or more H(e)NBs are physically separated from the one or more L-GWs in order to support mobility of a user equipment, the method comprising: providing 508, 608, 824, 924), by a first entity which is one of the one or more H(e)NBs or one of the one or more L-GWs, an information management device accessible by all of the one or more H(e)NBs and the one or more L-GWs with connection information about the first entity, the connection information about the first entity at least containing a local address and a core address of the first entity and identification information on the local network; receiving , by the first entity from the information management device, location information about a location containing connection information about a target entity which is one of the one or more L-GWs if the first entity is one of the one or more H(e)NBs or one of the one or more H(e)NBs if the first entity is one of the one or more L-GWs, the connection information about the target entity at least containing a local address of the target entity, and a core address of the target entity and identification information on the local network; obtaining , by the first entity, the connection information about the target entity based on the received location information; and establishing , by the first entity, a connection with the target entity using the local address of the target entity, the core address of the target entity and the identification information on the local network included in the obtained connection information about the target entity. providing 508, 608, 824, 924), by a first entity which is one of the one or more H(e)NBs or one of the one or more L-GWs, an information management device accessible by all of the one or more H(e)NBs and the one or more L-GWs with connection information about the first entity, the connection information about the first entity at least containing a local address and a core address of the first entity and identification information on the local network; receiving , by the first entity from the information management device, location information about a location containing connection information about a target entity which is one of the one or more L-GWs if the first entity is one of the one or more H(e)NBs or one of the one or more H(e)NBs if the first entity is one of the one or more L-GWs, the connection information about the target entity at least containing a local address of the target entity, and a core address of the target entity and identification information on the local network; obtaining , by the first entity, the connection information about the target entity based on the received location information; and establishing , by the first entity, a connection with the target entity using the local address of the target entity, the core address of the target entity and the identification information on the local network included in the obtained connection information about the target entity.
A voltage monitoring circuit (100; 200; 300; 400; 400'; 500) comprising: an initializing circuit (130; 230; 330; 430; 530) configured to generate an initialization signal (INT) by delaying a power supply voltage (VDD) by a first delay time; a switching circuit (110; 210; 310; 410; 510) configured to generate a switching signal (SW) in response to a reset signal (RST); a voltage detecting circuit (120; 220; 320; 420; 520) configured to perform an operation to generate a detection signal (DT) when the power supply voltage (VDD) increases and reaches a particular level, and to stop the operation in response to the switching signal (SW); an output circuit (140; 240; 340; 440; 540) configured to receive the initialization signal (INT) at a first input, to receive the detection signal (DT) at a second input, and to generate the reset signal (RST) in response to the initialization signal (INT) and the detection signal (DT). an initializing circuit (130; 230; 330; 430; 530) configured to generate an initialization signal (INT) by delaying a power supply voltage (VDD) by a first delay time; a switching circuit (110; 210; 310; 410; 510) configured to generate a switching signal (SW) in response to a reset signal (RST); a voltage detecting circuit (120; 220; 320; 420; 520) configured to perform an operation to generate a detection signal (DT) when the power supply voltage (VDD) increases and reaches a particular level, and to stop the operation in response to the switching signal (SW); an output circuit (140; 240; 340; 440; 540) configured to receive the initialization signal (INT) at a first input, to receive the detection signal (DT) at a second input, and to generate the reset signal (RST) in response to the initialization signal (INT) and the detection signal (DT).
A method for forming a log during an execution of a file with vulnerabilities in a virtual machine , the method comprising: discovering , by an interceptor , an activation of a trigger during an execution of a thread of a process created upon opening the file , wherein the trigger describes at least an event that performs an alteration of a data structure describing rights and privileges of a process in an operating system and one or more conditions accompanying the event which relates to an attempt to exploit a vulnerability of the file ; wherein the method is characterized by further comprising: analyzing , by the interceptor , a stack of the process created upon opening the file , and discovering a chain of function calls preceding the event in a form of a sequence of call and return addresses; analyzing , by the interceptor , the discovered chain of function calls for fulfillment of conditions of the trigger which relate to the attempt to exploit the vulnerability; and when the conditions of the trigger, which relate to the attempt to exploit the vulnerability of the file , are fulfilled, saving , by the interceptor , information about the chain of function calls in a log . analyzing , by the interceptor , a stack of the process created upon opening the file , and discovering a chain of function calls preceding the event in a form of a sequence of call and return addresses; analyzing , by the interceptor , the discovered chain of function calls for fulfillment of conditions of the trigger which relate to the attempt to exploit the vulnerability; and when the conditions of the trigger, which relate to the attempt to exploit the vulnerability of the file , are fulfilled, saving , by the interceptor , information about the chain of function calls in a log .
A computer-based vehicle control module capable of operating on one of first and second materials handling vehicles , characterized in that the vehicle control module comprises: a module input table comprising a superset of module input elements, wherein the superset of module input elements comprises a first subset of input elements related to a first set of hardware devices provided on the first vehicle and a second subset of module input elements related to a second set of hardware devices provided on the second vehicle ; at least one configuration table comprising respective configuration elements corresponding to ones of the superset of module input elements, wherein each respective configuration element comprises data related to effect a transformation of a value associated with the corresponding module input element of the module input table; vehicle function input elements related to vehicle function inputs utilized on the first vehicle and the second vehicle ; and structure for determining a value associated with a module input element of the module input table corresponding to a vehicle function input element, transforming the value to a transformed value and linking the transformed value with the corresponding vehicle function input element. a module input table comprising a superset of module input elements, wherein the superset of module input elements comprises a first subset of input elements related to a first set of hardware devices provided on the first vehicle and a second subset of module input elements related to a second set of hardware devices provided on the second vehicle ; at least one configuration table comprising respective configuration elements corresponding to ones of the superset of module input elements, wherein each respective configuration element comprises data related to effect a transformation of a value associated with the corresponding module input element of the module input table; vehicle function input elements related to vehicle function inputs utilized on the first vehicle and the second vehicle ; and structure for determining a value associated with a module input element of the module input table corresponding to a vehicle function input element, transforming the value to a transformed value and linking the transformed value with the corresponding vehicle function input element.
A light emitting device module comprising: a light emitting device package ; and a printed circuit board including first and second dummy pads and an electrode pad (102-104) arranged between the first and second dummy pads , on which the light emitting device package is disposed, wherein at least one of the first and second dummy pads has a dummy hole in the form of a through hole perforated in the printed circuit board which penetrates the dummy pad such that heat generated by the dummy pad can be dissipated using air passing through the dummy hole, and wherein the electrode pad adjacent to at least one of the first and second dummy pads has an electrode hole . a light emitting device package ; and a printed circuit board including first and second dummy pads and an electrode pad (102-104) arranged between the first and second dummy pads , on which the light emitting device package is disposed, wherein at least one of the first and second dummy pads has a dummy hole in the form of a through hole perforated in the printed circuit board which penetrates the dummy pad such that heat generated by the dummy pad can be dissipated using air passing through the dummy hole, and wherein the electrode pad adjacent to at least one of the first and second dummy pads has an electrode hole .
A computer-implemented method for operating an autonomous vehicle, characterized in that the method comprises: receiving motion planning and control data indicating that the autonomous vehicle is to move from a first point to a second point of a path, the motion planning and control data describing a plurality of routes of the autonomous vehicle from the first point to the second point within the path, and the routes being planned based on location and route information; for each of the planned routes, performing a simulation of the planned route in view of physical characteristics of the autonomous vehicle to generate a simulated route, and computing a controlling error representing a discrepancy between the planned route and the simulated route; selecting one of the planned routes based on controlling errors between the planned routes and associated simulated routes; and operating the autonomous vehicle moving from the first point to the second point according to the selected route. receiving motion planning and control data indicating that the autonomous vehicle is to move from a first point to a second point of a path, the motion planning and control data describing a plurality of routes of the autonomous vehicle from the first point to the second point within the path, and the routes being planned based on location and route information; for each of the planned routes, performing a simulation of the planned route in view of physical characteristics of the autonomous vehicle to generate a simulated route, and computing a controlling error representing a discrepancy between the planned route and the simulated route; performing a simulation of the planned route in view of physical characteristics of the autonomous vehicle to generate a simulated route, and computing a controlling error representing a discrepancy between the planned route and the simulated route; selecting one of the planned routes based on controlling errors between the planned routes and associated simulated routes; and operating the autonomous vehicle moving from the first point to the second point according to the selected route.
A wiper holder , comprising: a body part ; a first slot formed in said body part, said first slot for holding a first wiper element , wherein said first slot is bent to form-lock said first wiper element; and a second slot formed in said body part adjacent to said first slot, said second slot for holding a second wiper element , wherein said second slot is bent to form-lock said second wiper element; characterised in that said first slot is bent in a first direction and said second slot is bent in a second direction different from said first direction, in particular opposite from said first direction. a body part ; a first slot formed in said body part, said first slot for holding a first wiper element , wherein said first slot is bent to form-lock said first wiper element; and a second slot formed in said body part adjacent to said first slot, said second slot for holding a second wiper element , wherein said second slot is bent to form-lock said second wiper element; characterised in that said first slot is bent in a first direction and said second slot is bent in a second direction different from said first direction, in particular opposite from said first direction.