mhurhangee/patent-ind-claim-en huggingface dataset:
A method of generating haptic effects on a device that comprises an actuator and a speaker , the method being characterized by : receiving a high definition, HD, haptic effect signal; extracting a standard definition, SD, haptic effect signal from the HD haptic effect signal; generating an audio based haptic effect signal based on the HD haptic effect signal after the extraction of the SD haptic signal and a plant model of the device for an acceleration generated by the speaker , wherein the audio based haptic effect signal is adapted to cause the speaker to generate an HD component of the HD haptic effect signal; and substantially simultaneously playing the SD haptic effect signal on the actuator and playing the audio based haptic effect signal on the speaker . receiving a high definition, HD, haptic effect signal; extracting a standard definition, SD, haptic effect signal from the HD haptic effect signal; generating an audio based haptic effect signal based on the HD haptic effect signal after the extraction of the SD haptic signal and a plant model of the device for an acceleration generated by the speaker , wherein the audio based haptic effect signal is adapted to cause the speaker to generate an HD component of the HD haptic effect signal; and substantially simultaneously playing the SD haptic effect signal on the actuator and playing the audio based haptic effect signal on the speaker .
Linerless label media comprising: a substrate having a front side and a back side opposite the front side ; a thermally-sensitive coating disposed on the front side of the substrate ; and adhesive disposed on a portion of the back side of the substrate , characterised in that the adhesive comprises emulsion polymer particles and reinforcement particles dispersed within the emulsion polymer particles wherein the reinforcement particle have a greater aspect ratio than the emulsion polymer particles and are larger than the emulsion polymer particles. a substrate having a front side and a back side opposite the front side ; a thermally-sensitive coating disposed on the front side of the substrate ; and adhesive disposed on a portion of the back side of the substrate , characterised in that the adhesive comprises emulsion polymer particles and reinforcement particles dispersed within the emulsion polymer particles wherein the reinforcement particle have a greater aspect ratio than the emulsion polymer particles and are larger than the emulsion polymer particles.
A charging female connector comprising: a housing including a normal fitting part and a quick fitting part , the normal fitting part having a normal frontage to which a normal charging connector is fittable, the quick fitting part having a quick frontage to which a quick charging connector is fittable; and a cover configured to close the quick frontage , characterised in that the quick fitting part has a terminal insertion hole through which a terminal of the quick charging connector is insertable inside the quick fitting part , and the cover has a first protrusion extending toward the terminal insertion hole and holding the cover on the housing with the first protrusion being inserted into the terminal insertion hole . a housing including a normal fitting part and a quick fitting part , the normal fitting part having a normal frontage to which a normal charging connector is fittable, the quick fitting part having a quick frontage to which a quick charging connector is fittable; and a cover configured to close the quick frontage , characterised in that the quick fitting part has a terminal insertion hole through which a terminal of the quick charging connector is insertable inside the quick fitting part , and the cover has a first protrusion extending toward the terminal insertion hole and holding the cover on the housing with the first protrusion being inserted into the terminal insertion hole .
A mechanical seal , comprising a rotating part connectable to a rotating shaft (A) and a fixed part connectable to a fixed wall (P); said rotating part comprising: - an annular body rigidly connectable to a shaft (A) rotating about a rotation axis (R); - a sealing element having a rotating coupling surface configured for abutting against a respective static coupling surface of said fixed part ; and - elastic means active between said annular body and said sealing element for maintaining said rotating coupling surface pressed against said static coupling surface and allowing a mutual position adjustment along said rotation axis (R) between the annular body and the sealing element ; wherein said elastic means comprise a wave spring having a substantially annular profile, having a first shape coupling with said annular body configured for rotationally constraining said wave spring to said annular body around said rotation axis (R) and a second shape coupling with said sealing element configured for rotationally constraining said sealing element to said wave spring around the rotation axis (R); wherein said sealing element has a substantially cylindrical mouth , said annular body having a coupling portion defining an abutment shoulder , characterized in that said coupling portion is slidably inserted into said mouth , said wave spring having an inner diameter smaller than a mouth diameter and said abutment shoulder being configured for abutting against respective ends of said wave spring . - an annular body rigidly connectable to a shaft (A) rotating about a rotation axis (R); - a sealing element having a rotating coupling surface configured for abutting against a respective static coupling surface of said fixed part ; and - elastic means active between said annular body and said sealing element for maintaining said rotating coupling surface pressed against said static coupling surface and allowing a mutual position adjustment along said rotation axis (R) between the annular body and the sealing element ; wherein said sealing element has a substantially cylindrical mouth , said annular body having a coupling portion defining an abutment shoulder , characterized in that said coupling portion is slidably inserted into said mouth , said wave spring having an inner diameter smaller than a mouth diameter and said abutment shoulder being configured for abutting against respective ends of said wave spring .
The use of a thermoplastic polyester for producing 3D-printed objects, said polyester comprising: • at least one 1,4:3,6-dianhydrohexitol unit (A); • at least one alicyclic diol unit (B) other than the 1,4:3,6-dianhydrohexitol units (A); • at least one terephthalic acid unit (C); wherein the (A)/[(A)+(B)] ratio is at least 0.05 and at most 0.75; said polyester not containing any aliphatic non-cyclic diol units or comprising a molar amount of aliphatic non-cyclic diol units, relative to all the monomer units of the polyester, of less than 5%, and the reduced solution viscosity (25°C; phenol (50%m): ortho-dichlorobenzene (50%m); 5 g/l of polyester) of said polyester being greater than 50 ml/g. • at least one 1,4:3,6-dianhydrohexitol unit (A); • at least one alicyclic diol unit (B) other than the 1,4:3,6-dianhydrohexitol units (A); • at least one terephthalic acid unit (C);
A method comprising: by a computing system: accessing a digital design of a part designed for construction through an additive manufacturing process; inserting , into the digital design , a support structure configured to support construction of a surface of the part , wherein the support structure comprises: a shape-memory element configured to be in a diminished shape during the additive manufacturing process and expand into an expanded shape after the addictive manufacturing process ends; and an element enclosure attached to the surface of the part and configured to hold the shape-memory element in the diminished shape and break from the part as the shape-memory element expands into the expanded shape; manufacturing, by a 3-dimensional printing system, the part through the additive manufacturing process via the digital design , including: constructing the support structure , wherein constructing the support structure comprises constructing the element enclosure via the additive manufacturing process and inserting the shape-memory element into the element enclosure during the constructing of the element enclosure. accessing a digital design of a part designed for construction through an additive manufacturing process; inserting , into the digital design , a support structure configured to support construction of a surface of the part , wherein the support structure comprises: a shape-memory element configured to be in a diminished shape during the additive manufacturing process and expand into an expanded shape after the addictive manufacturing process ends; and an element enclosure attached to the surface of the part and configured to hold the shape-memory element in the diminished shape and break from the part as the shape-memory element expands into the expanded shape; a shape-memory element configured to be in a diminished shape during the additive manufacturing process and expand into an expanded shape after the addictive manufacturing process ends; and an element enclosure attached to the surface of the part and configured to hold the shape-memory element in the diminished shape and break from the part as the shape-memory element expands into the expanded shape; manufacturing, by a 3-dimensional printing system, the part through the additive manufacturing process via the digital design , including: constructing the support structure , wherein constructing the support structure comprises constructing the element enclosure via the additive manufacturing process and inserting the shape-memory element into the element enclosure during the constructing of the element enclosure.
An apparatus for storing electrical energy for delivery to an electric vehicle when required, the apparatus being a towable trailer attachable to the electric vehicle and having an internal unit in order to hold or contain at least two secondary electrical power sources , wherein the at least two secondary electrical power sources are removable and replaceable from the internal unit, wherein the secondary electrical power sources store electrical energy for delivery to the electric vehicle, the apparatus comprising, a power connection assembly to connect the at least two secondary power sources to the electric vehicle, a control system embedded in every secondary power source configured to manage charging and discharging of the secondary power source and to control supply to the electric vehicle, wherein the control system allows monitoring of the status of the secondary power source , wherein the control system includes a unique identification module including a computer chip having access to at least one communication pathway allowing a system administrator to remotely authorise delivery of the electrical energy from the secondary power source , and a plug to charge the two secondary power sources .
A fuel injection control method for a spark ignition internal combustion engine , the spark ignition internal combustion engine including: a piston including a crown; a combustion chamber including a ceiling part ; intake and exhaust valves disposed at the ceiling part of the combustion chamber ; and a fuel injection valve including a tip end portion including injection holes, and being structured to inject fuel through the injection holes toward the crown of the piston , wherein the tip end portion of the fuel injection valve is arranged in a region of the ceiling part surrounded by the intake and exhaust valves ; the fuel injection control method comprising: determining a tip end portion fuel temperature (Tfuel) directly or indirectly, wherein the tip end portion fuel temperature (Tfuel) is a temperature of fuel at the tip end portion of the fuel injection valve ; and setting a fuel injection timing (IT) advanced, in response to a condition that the tip end portion fuel temperature (Tfuel) is higher than a temperature threshold value (Tfb), wherein the temperature threshold value (Tfb) relates to flash boiling of fuel at the injection holes. a piston including a crown; a combustion chamber including a ceiling part ; intake and exhaust valves disposed at the ceiling part of the combustion chamber ; and a fuel injection valve including a tip end portion including injection holes, and being structured to inject fuel through the injection holes toward the crown of the piston , wherein the tip end portion of the fuel injection valve is arranged in a region of the ceiling part surrounded by the intake and exhaust valves ; determining a tip end portion fuel temperature (Tfuel) directly or indirectly, wherein the tip end portion fuel temperature (Tfuel) is a temperature of fuel at the tip end portion of the fuel injection valve ; and setting a fuel injection timing (IT) advanced, in response to a condition that the tip end portion fuel temperature (Tfuel) is higher than a temperature threshold value (Tfb), wherein the temperature threshold value (Tfb) relates to flash boiling of fuel at the injection holes.
A bioscaffold structure, comprising: a plurality of connected unit cells, each unit cell comprising a plurality of filaments composed of an extracellular material containing Collagen I and Collagen III, wherein the extracellular material contains a Collagen I to Collagen III ratio of between about 0.9:1 to about 2.5:1, wherein each of the plurality of unit cells includes at least one opening connected to an internal volume. a plurality of connected unit cells, each unit cell comprising a plurality of filaments composed of an extracellular material containing Collagen I and Collagen III, wherein the extracellular material contains a Collagen I to Collagen III ratio of between about 0.9:1 to about 2.5:1, wherein each of the plurality of unit cells includes at least one opening connected to an internal volume.
A Hall effect sensor system for detecting at least one of a speed and a position of a rotatable member, the sensor system comprising: a Hall effect sensor comprising: a first pair of opposing arms , each of the arms including a plurality fingers (18-1:18-3, 26-1:26-3) projecting outwardly therefrom, wherein the fingers on each of the arms include an electrode (20-1:20-3, 28-1:28-3), and a second pair of opposing arms , each of the second pair of opposing arms including a plurality of fingers (14-1:14-3, 22-1:22-3) projecting outwardly therefrom, wherein the fingers on each of the arms include an electrode (16-1:16-3, 24-1:24-3); and a bias current source (32-1:32-3, 42-1:42-3) providing a bias current through at least one electrode on a first one of the first pair of the opposing arms , a second one of the first pair of opposing arms providing a ground path for the bias current, wherein a sensing voltage is sensed by one of the electrodes provided with a first one of the second pair of opposing arms and sensed by one of the electrodes provided with a second one of the second pair of opposing arms . a Hall effect sensor comprising: a first pair of opposing arms , each of the arms including a plurality fingers (18-1:18-3, 26-1:26-3) projecting outwardly therefrom, wherein the fingers on each of the arms include an electrode (20-1:20-3, 28-1:28-3), and a second pair of opposing arms , each of the second pair of opposing arms including a plurality of fingers (14-1:14-3, 22-1:22-3) projecting outwardly therefrom, wherein the fingers on each of the arms include an electrode (16-1:16-3, 24-1:24-3); and a first pair of opposing arms , each of the arms including a plurality fingers (18-1:18-3, 26-1:26-3) projecting outwardly therefrom, wherein the fingers on each of the arms include an electrode (20-1:20-3, 28-1:28-3), and a second pair of opposing arms , each of the second pair of opposing arms including a plurality of fingers (14-1:14-3, 22-1:22-3) projecting outwardly therefrom, wherein the fingers on each of the arms include an electrode (16-1:16-3, 24-1:24-3); and a bias current source (32-1:32-3, 42-1:42-3) providing a bias current through at least one electrode on a first one of the first pair of the opposing arms , a second one of the first pair of opposing arms providing a ground path for the bias current, wherein a sensing voltage is sensed by one of the electrodes provided with a first one of the second pair of opposing arms and sensed by one of the electrodes provided with a second one of the second pair of opposing arms .
Motor vehicle driving style estimating system comprising: a measuring apparatus of a motion quantity (v(t); v gps (t)) of the motor vehicle; a processing apparatus connected to the measuring apparatus and configured to: define a value of a space (S th ) corresponding to a measuring path; calculate, based on the motion quantity, an estimate of an energy (Eu(t)) consumed by the motor vehicle along the measuring path defined by the space value (S th ); calculate an energy reference ( E REF (t) ) associated to a reference behavior of the motor vehicle along the measuring path defined by the space value (S th ); characterized in that the processing apparatus is further configured to calculate an indication (IND) of the driving style dependent on a difference between the consumed energy (Eu(t)) and the reference energy ( E REF (t) ) along the measuring path defined by the space value (S th ) and on the space value (S th ). a measuring apparatus of a motion quantity (v(t); v gps (t)) of the motor vehicle; a processing apparatus connected to the measuring apparatus and configured to: define a value of a space (S th ) corresponding to a measuring path; calculate, based on the motion quantity, an estimate of an energy (Eu(t)) consumed by the motor vehicle along the measuring path defined by the space value (S th ); calculate an energy reference ( E REF (t) ) associated to a reference behavior of the motor vehicle along the measuring path defined by the space value (S th ); characterized in that the processing apparatus is further configured to calculate an indication (IND) of the driving style dependent on a difference between the consumed energy (Eu(t)) and the reference energy ( E REF (t) ) along the measuring path defined by the space value (S th ) and on the space value (S th ). define a value of a space (S th ) corresponding to a measuring path; calculate, based on the motion quantity, an estimate of an energy (Eu(t)) consumed by the motor vehicle along the measuring path defined by the space value (S th ); calculate an energy reference ( E REF (t) ) associated to a reference behavior of the motor vehicle along the measuring path defined by the space value (S th ); characterized in that the processing apparatus is further configured to calculate an indication (IND) of the driving style dependent on a difference between the consumed energy (Eu(t)) and the reference energy ( E REF (t) ) along the measuring path defined by the space value (S th ) and on the space value (S th ).
A razor cartridge comprising: - three or more substantially parallel cutting members (28a-d) disposed between a leading longitudinal side and a trailing longitudinal side of the razor cartridge in a shaving direction (S) of the razor cartridge; wherein each of the cutting members (28a-d) comprises a blade support comprising a blade mounting portion disposed on an inner surface of the respective blade support that, in use, faces away from a shaving plane (SH), and a blade attached to the blade mounting portion ; wherein the cutting members (28a-d) are disposed to define a plurality of inter-blade spans between cutting edges of the blades; and wherein a leading inter-blade span that is closer to the leading longitudinal side of the razor cartridge than a trailing inter-blade span is greater than the trailing inter-blade span that is closer to the trailing longitudinal side of the razor cartridge than the leading inter-blade span, characterized in that the leading inter-blade span is in the range from 1.70 mm to 2.20 mm, more specifically from 1.80 mm to 2.00 mm, and most specifically 1.85 mm. - three or more substantially parallel cutting members (28a-d) disposed between a leading longitudinal side and a trailing longitudinal side of the razor cartridge in a shaving direction (S) of the razor cartridge; wherein each of the cutting members (28a-d) comprises a blade support comprising a blade mounting portion disposed on an inner surface of the respective blade support that, in use, faces away from a shaving plane (SH), and a blade attached to the blade mounting portion ; wherein the cutting members (28a-d) are disposed to define a plurality of inter-blade spans between cutting edges of the blades; and wherein a leading inter-blade span that is closer to the leading longitudinal side of the razor cartridge than a trailing inter-blade span is greater than the trailing inter-blade span that is closer to the trailing longitudinal side of the razor cartridge than the leading inter-blade span, characterized in that the leading inter-blade span is in the range from 1.70 mm to 2.20 mm, more specifically from 1.80 mm to 2.00 mm, and most specifically 1.85 mm.
A method, comprising: obtaining, for at least one video block, syntax information indicative of use of an implicit multiple transform selection mode; obtaining a first indication of a low frequency non-separable transform mode and/or a second indication of a matrix-based intra prediction mode; encoding the at least one video block in a bitstream using at least one transform of the multiple transform selection mode, wherein the at least one transform is selected based on the first indication and/or the second indication; and storing, conveying, or transmitting the bitstream comprising the encoded at least one video block. obtaining, for at least one video block, syntax information indicative of use of an implicit multiple transform selection mode; obtaining a first indication of a low frequency non-separable transform mode and/or a second indication of a matrix-based intra prediction mode; encoding the at least one video block in a bitstream using at least one transform of the multiple transform selection mode, wherein the at least one transform is selected based on the first indication and/or the second indication; and storing, conveying, or transmitting the bitstream comprising the encoded at least one video block.
An agricultural operational system for optimizing operating parameters, with at least one agricultural working machine , in particular at least one tractor, and with at least one working assembly coupled to the agricultural working machine for carrying out or supporting agricultural work, wherein the agricultural working machine has a driver assistance system for detecting, processing and outputting data relating to an agricultural operational assignment, characterized in that the driver assistance system is configured to detect a plurality of operating parameters and to enable an operator to classify the detected operating parameters or sets of operating parameters with a plurality of different detected operating parameters, in that individual or all of the classified operating parameters or operating parameter sets are retrievably stored in a data pool, and in that the operating parameters or operating parameter sets are transmitted, on the basis of the classification, to an algorithm for the generation of optimized operating parameters or operating parameter sets for the adjustment of the agricultural working machine and/or of the at least one working assembly . the driver assistance system is configured to detect a plurality of operating parameters and to enable an operator to classify the detected operating parameters or sets of operating parameters with a plurality of different detected operating parameters, in that individual or all of the classified operating parameters or operating parameter sets are retrievably stored in a data pool, and in that the operating parameters or operating parameter sets are transmitted, on the basis of the classification, to an algorithm for the generation of optimized operating parameters or operating parameter sets for the adjustment of the agricultural working machine and/or of the at least one working assembly .