mhurhangee/patent-ind-claim-en huggingface dataset:
A computer-implemented method comprising: processing data to identify a risk associated with operating a vehicle comprising an autonomous driving capability, wherein identifying the risk comprises learning a pattern of known risks, wherein the patterns include time period information, road configurations, and distributions of risks within a region or within a time period, and using the learned patterns as prior information to identify the risk; modifying the autonomous driving capability in response to the risk, wherein the learned patterns are used as prior information to modify the autonomous driving capability, and wherein modifying the autonomous driving capability comprises i) adapting a motion planning process of the autonomous driving capability, or ii) altering a perception process of the autonomous driving capability, wherein altering the perception process comprises, when the vehicle is expected to pass near a risk, assigning information about the risk a higher priority for the perception process; and updating operation of the vehicle based on the modifying of the autonomous capability. processing data to identify a risk associated with operating a vehicle comprising an autonomous driving capability, wherein identifying the risk comprises learning a pattern of known risks, wherein the patterns include time period information, road configurations, and distributions of risks within a region or within a time period, and using the learned patterns as prior information to identify the risk; learning a pattern of known risks, wherein the patterns include time period information, road configurations, and distributions of risks within a region or within a time period, and using the learned patterns as prior information to identify the risk; modifying the autonomous driving capability in response to the risk, wherein the learned patterns are used as prior information to modify the autonomous driving capability, and wherein modifying the autonomous driving capability comprises i) adapting a motion planning process of the autonomous driving capability, or ii) altering a perception process of the autonomous driving capability, wherein altering the perception process comprises, when the vehicle is expected to pass near a risk, assigning information about the risk a higher priority for the perception process; and i) adapting a motion planning process of the autonomous driving capability, or ii) altering a perception process of the autonomous driving capability, updating operation of the vehicle based on the modifying of the autonomous capability.
A frame for an articulating bed comprising: an extruded beam having an upper inner flange and a lower inner flange separated by a slot which opens to a support channel formed therein and having an upper wall and a lower wall with an upper outer flange closing the support channel , a lower edge of upper inner flange and upper edge of lower inner flange terminating in an upper runner bead and lower runner bead , respectively, which bound the slot said extruded beam cut to form frame side elements and end elements; and, a plurality of translating support blocks having an upper groove and a lower groove , received in and supported by the support channel and engaged and riding on the upper and lower runner beads with an inner portion of each translating support block engaged within the support channel, the translating blocks translatable within the support channel and engaging a translatable chariot supporting a seat section of an articulating structure. an extruded beam having an upper inner flange and a lower inner flange separated by a slot which opens to a support channel formed therein and having an upper wall and a lower wall with an upper outer flange closing the support channel , a lower edge of upper inner flange and upper edge of lower inner flange terminating in an upper runner bead and lower runner bead , respectively, which bound the slot said extruded beam cut to form frame side elements and end elements; and, a plurality of translating support blocks having an upper groove and a lower groove , received in and supported by the support channel and engaged and riding on the upper and lower runner beads with an inner portion of each translating support block engaged within the support channel, the translating blocks translatable within the support channel and engaging a translatable chariot supporting a seat section of an articulating structure.
A head-mountable display (HMD) system comprising: at least one detector to detect a gaze direction of an eye of a user wearing an HMD; receiving circuitry to receive a user input from the user indicating a type of eye condition for the eye of the user associated with at least partial vision loss for a region of vision; a display unit to display one or more images to the user; and a processor to generate the one or more images for display to the user by the display unit in dependence upon the type of eye condition and an output of the at least one detector indicative of the detected gaze direction of the eye, in which the display unit is configured to display one or more calibration images in dependence upon the type of eye condition, each calibration image comprising one or more target objects, in which the display unit is configured to display one or more first calibration images for a type of eye condition associated with vision loss for a central region of vision and the display unit is configured to display one or more second calibration images for a type of eye condition associated with vision loss for a peripheral region of vision. at least one detector to detect a gaze direction of an eye of a user wearing an HMD; receiving circuitry to receive a user input from the user indicating a type of eye condition for the eye of the user associated with at least partial vision loss for a region of vision; a display unit to display one or more images to the user; and a processor to generate the one or more images for display to the user by the display unit in dependence upon the type of eye condition and an output of the at least one detector indicative of the detected gaze direction of the eye, in which the display unit is configured to display one or more calibration images in dependence upon the type of eye condition, each calibration image comprising one or more target objects, in which the display unit is configured to display one or more first calibration images for a type of eye condition associated with vision loss for a central region of vision and the display unit is configured to display one or more second calibration images for a type of eye condition associated with vision loss for a peripheral region of vision.
A processor comprising: decoding circuitry adapted to decode an instruction, wherein the instruction specifies locations of a plurality of operands, values of which being in a floating-point format; and execution circuitry adapted to execute the decoded instruction, wherein the execution includes to: convert the values for each operand, each value being converted into a plurality of lower precision values, wherein an exponent is to be stored for each operand, perform arithmetic operations among lower precision values converted from values for the plurality of the operands, and generate a floating-point value by converting a resulting value from the arithmetic operations into the floating-point format and store the floating-point value, characterized in that , to convert the values, each of the values in the floating-point format is quantized into a plurality of integers and a shared exponent of the plurality of integers is stored within memory or a register. decoding circuitry adapted to decode an instruction, wherein the instruction specifies locations of a plurality of operands, values of which being in a floating-point format; and execution circuitry adapted to execute the decoded instruction, wherein the execution includes to: convert the values for each operand, each value being converted into a plurality of lower precision values, wherein an exponent is to be stored for each operand, perform arithmetic operations among lower precision values converted from values for the plurality of the operands, and generate a floating-point value by converting a resulting value from the arithmetic operations into the floating-point format and store the floating-point value, characterized in that , to convert the values, each of the values in the floating-point format is quantized into a plurality of integers and a shared exponent of the plurality of integers is stored within memory or a register. convert the values for each operand, each value being converted into a plurality of lower precision values, wherein an exponent is to be stored for each operand, perform arithmetic operations among lower precision values converted from values for the plurality of the operands, and generate a floating-point value by converting a resulting value from the arithmetic operations into the floating-point format and store the floating-point value, characterized in that , to convert the values, each of the values in the floating-point format is quantized into a plurality of integers and a shared exponent of the plurality of integers is stored within memory or a register.
A method of wireless communication, comprising: receiving, at a user equipment, UE , an indication from a serving base station ; configuring transmission of uplink demodulation reference signals, DMRS, according to a transmission configuration identified by the indication, wherein the indication identifies one of: a single carrier frequency divisional multiplex, SC-FDM, or interlaced frequency divisional multiplex, IFDM, configurations; and transmitting the DMRS according to the transmission configuration, characterised in that the receiving the indication includes: receiving a resource block assignment from the serving base station , wherein the one of: the SC-FDM or IFDM configurations is determined based on a number of assigned resource blocks. receiving, at a user equipment, UE , an indication from a serving base station ; configuring transmission of uplink demodulation reference signals, DMRS, according to a transmission configuration identified by the indication, wherein the indication identifies one of: a single carrier frequency divisional multiplex, SC-FDM, or interlaced frequency divisional multiplex, IFDM, configurations; and transmitting the DMRS according to the transmission configuration, characterised in that the receiving the indication includes: receiving a resource block assignment from the serving base station , wherein the one of: the SC-FDM or IFDM configurations is determined based on a number of assigned resource blocks.
A method of identifying a network object group from a plurality of network objects (x 1 to x M ) of a communications network, the method comprising: grouping network objects based on a function of a plurality of key performance indicators, KPIs (k 1 to k N ), which are common to the plurality of network objects (x 1 to x M ), wherein grouping network objects based on a function of a plurality of KPIs comprises: representing network objects of the plurality of network objects (x 1 to x M ) using a respective set of data vectors (k 1 _x 1 to k N _x 1 ...... k 1 _x M to k N _x M ), wherein a set of data vectors relates to the KPIs available at a network object; and is characterised by comparing at least one data vector between a plurality of network objects (x 1 to x M ) to determine a relation value (r); and identifying a network object group at a first hierarchical level if the network objects have a relation value (r) above a first threshold value. representing network objects of the plurality of network objects (x 1 to x M ) using a respective set of data vectors (k 1 _x 1 to k N _x 1 ...... k 1 _x M to k N _x M ), wherein a set of data vectors relates to the KPIs available at a network object; and is characterised by comparing at least one data vector between a plurality of network objects (x 1 to x M ) to determine a relation value (r); and identifying a network object group at a first hierarchical level if the network objects have a relation value (r) above a first threshold value.
An oligomeric compound comprising a contiguous sequence of monomer subunits linked by internucleoside linking groups, wherein at least one of the internucleoside linking groups has Formula I: wherein each X is independently O or S; wherein the oligomeric compound is a gapped oligomeric compound having a gap region of from 6 to 14 contiguous monomer subunits selected from P-D-2'-deoxyribonucleosides and modified nucleosides that are DNA-like that each adopt a 2'-endo conformational geometry located between a 5'-region and a 3'-region, wherein the 5' and 3'-regions each, independently, have from 2 to 8 contiguous monomer subunits selected from RNA-like modified nucleosides that each adopt a 3'-endo conformational geometry; wherein each internucleoside linking group of Formula I is, independently, located in the gap region or between the gap region and the 5'-region or the 3'-region. wherein each X is independently O or S; wherein the oligomeric compound is a gapped oligomeric compound having a gap region of from 6 to 14 contiguous monomer subunits selected from P-D-2'-deoxyribonucleosides and modified nucleosides that are DNA-like that each adopt a 2'-endo conformational geometry located between a 5'-region and a 3'-region, wherein the 5' and 3'-regions each, independently, have from 2 to 8 contiguous monomer subunits selected from RNA-like modified nucleosides that each adopt a 3'-endo conformational geometry; wherein each internucleoside linking group of Formula I is, independently, located in the gap region or between the gap region and the 5'-region or the 3'-region.
A fusion polypeptide comprising a Leishmania sterol 24-c-methyltransferase (SMT) polypeptide sequence and a Leishmania non-specific nucleoside hydrolase (NH) polypeptide sequence, wherein the Leishmania NH polypeptide sequence comprises a sequence selected from the group consisting of SEQ ID NOs: 1, 3 and 5, or a sequence having at least 90%, at least 95%, at least 96% or at least 97% identity thereto; and wherein the Leishmania SMT polypeptide sequence comprises a sequence selected from the group consisting of SEQ ID NOs: 7, 9 and 11, or a sequence having at least 90%, at least 95%, at least 96% or at least 97% identity thereto.
A method, comprising: mixing a catalytic metal salt, a templating agent, a solvent, and water to form a water-in-oil microemulsion; adding a substrate precursor to the water-in-oil microemulsion to form a slurry; and calcining the slurry to form a substrate having a porous template that is capable of supporting a catalyst composition. mixing a catalytic metal salt, a templating agent, a solvent, and water to form a water-in-oil microemulsion; adding a substrate precursor to the water-in-oil microemulsion to form a slurry; and calcining the slurry to form a substrate having a porous template that is capable of supporting a catalyst composition.
A method for operating an automatically movable surface treatment device , in particular a robotic vacuum cleaner and/or a cleaning robot, wherein the surface treatment device can move in a room and possibly carries out surface treatment tasks in this case, and wherein the surface treatment device shows a ultrasonic sensor, wherein the ultrasonic sensor detecting ultrasonic waves reflected on obstacles , characterized in that the ultrasonic sensor detects glass breakage noises, wherein frequencies of sound detected by means of the ultrasonic sensor are compared with reference frequencies typically occurring in the event of a glass breakage, and wherein, in the event of a match, a glass breakage, in particular a break-in through a pane of glass of a window or of a door, is determined.
A microcapsule type curable resin composition comprising: a microcapsule encapsulating only a compound with 3 or 4 thiol groups (a); a substance (b) curable by reacting with the one or more compounds with 3 or 4 thiol groups; and a binder (c) which can adhere the microcapsule to an adherend, a reaction catalyst (d) for the compounds (a) and the substance (b); a filler (e) selected from a group consisting of silica and nylon resin powder, wherein the substance (b) is encapsulated in a microcapsule separately from the microcapsule encapsulating only the compound with 3 or 4 thiol groups (a), wherein content of the microcapsules encapsulating said compounds with 3 or 4 thiol groups (a) is 20 to 80 parts by mass per 100 parts by mass of the microcapsule encapsulating the substance (b), and wherein the content of the binder (c) is 10 to 60 parts by mass per 100 parts by mass of the total mass of the microcapsule encapsulating only the compound with 3 or 4 thiol groups (a) and the microcapsule encapsulating the component (b). a microcapsule encapsulating only a compound with 3 or 4 thiol groups (a); a substance (b) curable by reacting with the one or more compounds with 3 or 4 thiol groups; and a binder (c) which can adhere the microcapsule to an adherend, a reaction catalyst (d) for the compounds (a) and the substance (b); a filler (e) selected from a group consisting of silica and nylon resin powder, wherein the substance (b) is encapsulated in a microcapsule separately from the microcapsule encapsulating only the compound with 3 or 4 thiol groups (a),
A method for providing communications backup in a computer network comprising computing devices in an enclosure individually coupled to an optical multiplexer via fiber optic cables, wherein a primary optical switch can couple the optical multiplexer to a primary top-of-rack switch, the method comprising: detecting an abnormal operating condition at the primary top-of-rack switch, the primary top-of-rack switch being coupled to a computing device via a first optical connection between an optical switch and the primary top-of-rack switch; in response to the detected abnormal operation condition, prompting the optical switch to switch from the first optical connection to a second optical connection between the optical switch and a standby top-of-rack switch having similar structure and function as the primary top-of-rack switch; and instructing the standby top-of-rack switch to facilitate communications with the computing device once the optical switch is switched to the second optical connection, thereby allowing continued network communications of the computing device via the standby top-of-rack switch. detecting an abnormal operating condition at the primary top-of-rack switch, the primary top-of-rack switch being coupled to a computing device via a first optical connection between an optical switch and the primary top-of-rack switch; in response to the detected abnormal operation condition, prompting the optical switch to switch from the first optical connection to a second optical connection between the optical switch and a standby top-of-rack switch having similar structure and function as the primary top-of-rack switch; and instructing the standby top-of-rack switch to facilitate communications with the computing device once the optical switch is switched to the second optical connection, thereby allowing continued network communications of the computing device via the standby top-of-rack switch.
An electric heating device having an improved air channel, the electric heating device comprises an upper cover component and a lower shell component; and the upper cover component comprises an upper shell and a guiding tube for inserting a tobacco product; the lower shell component comprises a lower shell , and a battery , a control element , and a heater component which are arranged in the lower shell ; and the lower shell is detachably connected with the upper shell ; the heater component comprises a heater shell , and a heating member and a heating member base which are arranged in the heater shell ; the heating member is arranged on the heating member base ; and the heating member is connected with the control element ; one end of the guiding tube is connected with the upper shell , the other end of the guiding tube extends into the heater shell , and the heating member is at least partially located in the guiding tube ; characterized in that , the heating member base is provided with a ventilation portion to guide an air flow to the heating member; the lower shell is provided with a first air inlet , the heater shell is provided with a second air inlet , and the air flow is led to the heating member from an outside of the lower shell through the first air inlet , the second air inlet , and the ventilation portion in sequence. the lower shell component comprises a lower shell , and a battery , a control element , and a heater component which are arranged in the lower shell ; and the lower shell is detachably connected with the upper shell ; the heater component comprises a heater shell , and a heating member and a heating member base which are arranged in the heater shell ; the heating member is arranged on the heating member base ; and the heating member is connected with the control element ; one end of the guiding tube is connected with the upper shell , the other end of the guiding tube extends into the heater shell , and the heating member is at least partially located in the guiding tube ; characterized in that , the heating member base is provided with a ventilation portion to guide an air flow to the heating member; the lower shell is provided with a first air inlet , the heater shell is provided with a second air inlet , and the air flow is led to the heating member from an outside of the lower shell through the first air inlet , the second air inlet , and the ventilation portion in sequence.
Apparatus for expanding and filling plastic parisons to form plastic containers by means of a liquid medium, with at least one transforming station which has a hollow mould , inside which the plastic parisons can be expanded into plastic containers and can be simultaneously filled by application of a liquid medium, wherein the transforming station is arranged on a carrier and wherein the transforming station has a filling device which feeds the liquid medium to the plastic parisons under pressure, wherein the transforming station has a pressure chamber to which a gas can be applied, and wherein a closing unit can be introduced into the pressure chamber , in order to close the expanded und filled plastic containers , characterised in that for filling of the plastic parisons the filling device can be introduced into the pressure chamber and after the filling can be removed at least partially. characterised in that for filling of the plastic parisons the filling device can be introduced into the pressure chamber and after the filling can be removed at least partially.