mhurhangee/ep-ind-claims huggingface dataset:
A charging stand for use with a percussive massage device that includes a rechargeable battery, the charging stand comprising: a main body portion that defines a charging channel therein, wherein the charging channel is configured to receive the percussive massage device in a charging position, wherein the main body portion includes first and second sidewall, an upper wall and a lower wall that cooperate to define the charging channel, and wherein when a percussive massage device is received in the charging position, power is transmitted from the charging stand to the rechargeable battery; and a charging pin positioned in the charging channel, wherein the charging pin is movable between a charging position and a safety position; and a retractable tab that is movable between a protection position where the retractable tab is positioned in the charging channel and a charging position where the retractable tab is at least partially retracted into an interior of the main body portion, wherein the retractable tab is biased to the protection position, and wherein the charging pin is positioned adjacent the retractable tab, and wherein the retractable tab includes a side surface adjacent the charging pin, wherein the side surface includes a surface area that defines a surface area extended volume that extends transversely across the charging channel, and wherein the charging pin is positioned in the surface area extended volume. a main body portion that defines a charging channel therein, wherein the charging channel is configured to receive the percussive massage device in a charging position, wherein the main body portion includes first and second sidewall, an upper wall and a lower wall that cooperate to define the charging channel, and wherein when a percussive massage device is received in the charging position, power is transmitted from the charging stand to the rechargeable battery; and a charging pin positioned in the charging channel, wherein the charging pin is movable between a charging position and a safety position; and a retractable tab that is movable between a protection position where the retractable tab is positioned in the charging channel and a charging position where the retractable tab is at least partially retracted into an interior of the main body portion, wherein the retractable tab is biased to the protection position, and wherein the charging pin is positioned adjacent the retractable tab, and wherein the retractable tab includes a side surface adjacent the charging pin, wherein the side surface includes a surface area that defines a surface area extended volume that extends transversely across the charging channel, and wherein the charging pin is positioned in the surface area extended volume.
A booster seat for a child, said booster seat having a footprint and comprising a base (28, 328) provided with a stabilising foot (50-56, 250, 350-356) and a height increasing foot (64-70, 252, 364-370) mounted to said stabilising foot, wherein: said stabilising foot is movable with respect to said base from a retracted position to a deployed position in which said stabilising foot is laterally extended with respect to said base to increase said footprint; and said height increasing foot is mounted to said stabilising foot and movable with respect to said base from a retracted position to a deployed height increasing position in which the height increasing foot is extended downwardly with respect to said base to raise the base with respect to a surface that supports said booster seat to raise the base with respect to said surface, wherein when in said retracted position said height increasing foot is at least partially housed by said stabilising foot, wherein said height increasing foot is pivotally mounted to said stabilising foot so as to be pivotable between said retracted and deployed positions, wherein the booster seat is characterised in that said stabilising foot moves in a first plane when moving between said retracted and deployed positions and said height increasing foot moves in a direction transverse to said first plane when moving from said retracted and deployed positions. said stabilising foot is movable with respect to said base from a retracted position to a deployed position in which said stabilising foot is laterally extended with respect to said base to increase said footprint; and said height increasing foot is mounted to said stabilising foot and movable with respect to said base from a retracted position to a deployed height increasing position in which the height increasing foot is extended downwardly with respect to said base to raise the base with respect to a surface that supports said booster seat to raise the base with respect to said surface, wherein when in said retracted position said height increasing foot is at least partially housed by said stabilising foot, wherein said height increasing foot is pivotally mounted to said stabilising foot so as to be pivotable between said retracted and deployed positions, wherein the booster seat is characterised in that said stabilising foot moves in a first plane when moving between said retracted and deployed positions and said height increasing foot moves in a direction transverse to said first plane when moving from said retracted and deployed positions.
A method, which facilitates interaction with a virtual reality, VR, device that creates a three-dimensional world around a user, the method comprising: receiving a user input via a wearable device; extracting, by the wearable device, a parameter and a value of the parameter from the user input provided via a bezel of the wearable device, wherein the parameter comprises a rotation angle of the bezel, and a rotation direction of the bezel; transmitting the parameter and the value of the parameter to the VR device, by the wearable device; identifying, by the VR device, an action among a plurality of actions, corresponding to the parameter and the value, wherein the action comprises at least one among navigating a virtual environment projected by the VR device and rendering a view within the virtual environment; wherein the identifying the action comprises mapping the rotation angle with a temporal navigation speed of the virtual environment; wherein the identifying the action further comprises mapping the rotation direction with a temporal navigation direction of the virtual environment; and executing the action based on the mapping of the rotation angle and the mapping of the rotation direction. receiving a user input via a wearable device; extracting, by the wearable device, a parameter and a value of the parameter from the user input provided via a bezel of the wearable device, wherein the parameter comprises a rotation angle of the bezel, and a rotation direction of the bezel; transmitting the parameter and the value of the parameter to the VR device, by the wearable device; identifying, by the VR device, an action among a plurality of actions, corresponding to the parameter and the value, wherein the action comprises at least one among navigating a virtual environment projected by the VR device and rendering a view within the virtual environment; wherein the identifying the action comprises mapping the rotation angle with a temporal navigation speed of the virtual environment; wherein the identifying the action further comprises mapping the rotation direction with a temporal navigation direction of the virtual environment; and executing the action based on the mapping of the rotation angle and the mapping of the rotation direction.
A compound of formula I or a salt thereof: wherein, X is a bond V is -C O-, -C N(R 5)-, -C N(R 5)O-, -NH-C -N(R 5)- or NH-S n -; L is a bond, alkylene wherein one or more non-adjacent methylene groups of said alkylene are optionally replaced with -O-; divalent aryl or divalent heteroaryl; or L is alkylene-Y-alkylene wherein Y is O, NR x, S, SO, SO 2 or a divalent heterocycle; wherein said alkylene groups are optionally substituted with OH, -C O-R 1, alkyl or alkyl substituted with OH or - C O-Ri; and wherein a carbon of said alkylene groups and R x optionally together form a heterocycle; R 1 is alkyl optionally substituted with halogen, OH, amino, oxo, carboxy, acyloxy, alkoxycarbonyl, alkoxyacyloxy, alkoxycarbonyloxy, aminocarbonyl, a carbocycle optionally substituted with alkyl, haloalkyl, oxo, amino and halogen and a heterocycle optionally substituted with alkyl, oxo, amino and halogen; and a carbocycle or heterocycle optionally substituted with alkyl, haloalkyl, oxo, amino and halogen; wherein one or more non-adjacent methylene groups in any of the foregoing alkyl groups is optionally replaced with O; R 2 is H or Ri; R 3 is absent, H, Me; provided that when -X-L-C O-Ri depends from the carbon to which R 3 depends then R 3 is absent; or R 3 is -Z-L-C O-R 1 wherein Z is a bond, -O-, -N(R x)-, -C N(R x)-, -N(R x)-C -, -S n -N(R x)- or -N(R x)-S n -; and R 4 is absent, H or OH; provided that when -X-L-C O-Ri depends from the carbon to which R 4 depends then R 4 is H or absent; R 5 is H or alkyl; R x is H, -C O-R 1, or alkyl optionally substituted with -C O-R 1; and n is 1 or 2. X is a bond V is -C O-, -C N(R 5)-, -C N(R 5)O-, -NH-C -N(R 5)- or NH-S n -; L is a bond, alkylene wherein one or more non-adjacent methylene groups of said alkylene are optionally replaced with -O-; divalent aryl or divalent heteroaryl; or L is alkylene-Y-alkylene wherein Y is O, NR x, S, SO, SO 2 or a divalent heterocycle; wherein said alkylene groups are optionally substituted with OH, -C O-R 1, alkyl or alkyl substituted with OH or - C O-Ri; and wherein a carbon of said alkylene groups and R x optionally together form a heterocycle; R 1 is alkyl optionally substituted with halogen, OH, amino, oxo, carboxy, acyloxy, alkoxycarbonyl, alkoxyacyloxy, alkoxycarbonyloxy, aminocarbonyl, a carbocycle optionally substituted with alkyl, haloalkyl, oxo, amino and halogen and a heterocycle optionally substituted with alkyl, oxo, amino and halogen; and a carbocycle or heterocycle optionally substituted with alkyl, haloalkyl, oxo, amino and halogen; wherein one or more non-adjacent methylene groups in any of the foregoing alkyl groups is optionally replaced with O; R 2 is H or Ri; R 3 is absent, H, Me; provided that when -X-L-C O-Ri depends from the carbon to which R 3 depends then R 3 is absent; or R 3 is -Z-L-C O-R 1 wherein Z is a bond, -O-, -N(R x)-, -C N(R x)-, -N(R x)-C -, -S n -N(R x)- or -N(R x)-S n -; and R 4 is absent, H or OH; provided that when -X-L-C O-Ri depends from the carbon to which R 4 depends then R 4 is H or absent; R 5 is H or alkyl; R x is H, -C O-R 1, or alkyl optionally substituted with -C O-R 1; and n is 1 or 2.
Electronic device for an at least partially electrically driven vehicle having an electrical energy store, which is provided for the drive system of the vehicle and comprises a plurality of series-connected energy storage cells, and a voltage converter coupled to the energy store for the supply of at least one further electrical load of the vehicle, and wherein the device is designed to supply current to at least one of the further electrical loads of the vehicle, from a number of series-connected energy storage cells of the electrical energy store which is smaller than the maximum number of series-connected energy storage cells of the energy store in the event that a maximum current for the at least one further electrical load exceeds the maximum current available from the voltage converter, wherein the device is also designed to provide the maximum current in response to the state of charge or discharge of the energy store from a first number and a second number of series-connected energy storage cells, wherein the first number is different to the second number and wherein the first and the second number are each lower than the maximum number of series-connected energy storage cells of the energy store, wherein the device is designed to switch over the voltage or current supply of the at least one further electrical load from the first number of series-connected energy storage cells to the second and larger number of series-connected energy storage cells if a voltage across the first number of series-connected energy storage cells has reached or falls below a lower limiting value, wherein the device is designed to switch over the voltage or current supply of the at least one further electrical load from the second number of series-connected energy storage cells to the first and smaller number of series-connected energy storage cells if a voltage across the second number of series-connected energy storage cells has reached or exceeds an upper limiting value, characterized in that the upper limiting value is at least in a significant proportion defined by a nominal output voltage of the voltage converter.
A method for processing a glass part, of a handheld electronic device, the glass part being formed from a fusion process or a float process, the method comprising: annealing the glass part of the handheld electronic device, wherein annealing the glass part includes at least: heating the glass part at a first temperature, maintaining the first temperature for a predetermined amount of time, and cooling the glass part to a second temperature using a controlled cooling process and characterised by chemically strengthening the glass part, wherein chemically strengthening the glass part includes: placing the glass part of the handheld electronic device in a chemical strengthening bath; and facilitating an ion exchange between ions included in the glass part and ions included in the chemical strengthening bath; wherein the chemically strengthening of the glass part of the handheld electronic device provides an annealed and chemically strengthened glass part for the handheld electronic device and wherein the glass part is taken from the controlled cooling and placed in the chemical strengthening bath without an intervening uncontrolled cooling process. heating the glass part at a first temperature, maintaining the first temperature for a predetermined amount of time, and cooling the glass part to a second temperature using a controlled cooling process and characterised by chemically strengthening the glass part, wherein chemically strengthening the glass part includes: placing the glass part of the handheld electronic device in a chemical strengthening bath; and facilitating an ion exchange between ions included in the glass part and ions included in the chemical strengthening bath; wherein the chemically strengthening of the glass part of the handheld electronic device provides an annealed and chemically strengthened glass part for the handheld electronic device and wherein the glass part is taken from the controlled cooling and placed in the chemical strengthening bath without an intervening uncontrolled cooling process. placing the glass part of the handheld electronic device in a chemical strengthening bath; and facilitating an ion exchange between ions included in the glass part and ions included in the chemical strengthening bath; wherein the chemically strengthening of the glass part of the handheld electronic device provides an annealed and chemically strengthened glass part for the handheld electronic device and wherein the glass part is taken from the controlled cooling and placed in the chemical strengthening bath without an intervening uncontrolled cooling process.
A process of controlling broadleaved weeds selected from the family Euphorbiaceae, Portulacaceae and Commelinaceae comprising applying an herbicidally effective amount of a combination comprising glufosinate, its agriculturally acceptable salts, isomers, or esters thereof; and haloxyfop, its agriculturally acceptable salts, isomers, or esters thereof, preferably wherein the combination is in the form of a composition.
A method for transmitting a packet comprising the steps of: - partitioning a packet into a plurality of sub-packets (323, 323a) based on a coverage field indicated in transport header information; and - applying different levels of error protection and/or error detection to each of the plurality of sub-packets (323, 323a); characterized in that the sub-packets (323, 323a) are processed for transmission over different radio bearers with unequal or different levels of error protection. - partitioning a packet into a plurality of sub-packets (323, 323a) based on a coverage field indicated in transport header information; and - applying different levels of error protection and/or error detection to each of the plurality of sub-packets (323, 323a);
A mechanical two-way band brake for a caster comprises a vertical axis pivot, a control member, a fork and a lever characterized in that the lever bears on a yoke at least on one end of the lever, whereas the yoke comprises at least one arm and at least one anchoring point on the at least one arm and is coupled to the fork, whereas the anchoring point is located in a slot of a support of the fork, whereas the yoke is supported free on the support of the fork and in parallel is supported by a spring, whereas in addition the yoke comprises at least one anchoring point at each end of the yoke to fix a brake band to the yoke, where the brake band encircles a brake drum for the caster in spiral.
A fluid dispenser device comprising: a reservoir containing two doses of fluid; a dispenser member, formed by a piston, that is mounted to slide in said reservoir so as to dispense the fluid, said piston being movable relative to said reservoir between a rest position, before the first dose has been dispensed, and a final position, after the second dose has been dispensed; and a dispenser head that is provided with a dispenser orifice, said head being movable relative to said reservoir so as to move said actuator member in said reservoir and thus dispense the fluid through said dispenser orifice; the fluid dispenser device being characterized in that said dispenser head includes two viewing windows (35, 36), said device including an indicator that is movable together with said reservoir, said indicator co-operating with a respective viewing window (35, 36) after each actuation of the device.
A method for controlling a robot comprising a robot arm, said robot arm comprises a base section, a plurality of arm sections, two adjacent arm sections being connected via a joint and sensor means provided in each respective joint to sense the rotation of the respective joint, the method comprising: a user manually placing the robot at a given position Po relative to objects in the surroundings of the robot, whereby a portion or point P located on the robot arm is moved to define one or more geometrical features relative to said objects (10, 11) in the surroundings of the robot by means of the sensor means and a relationship is established between said one or more geometrical features and first robot coordinates of a robot coordinate system by converting said first robot coordinates to second coordinates by which said one or more geometrical features can be specified; and a user subsequently instructing the robot to carry out movements of specific portions of the robot relative to said surroundings by reference to said one or more geometrical features, whereby said sensor means by means of which the one or more geometrical features were defined are also used for controlling the motors/joints (6, 7, 8) of the robot arm, wherein the one or more stored geometrical features are stored in and retrieved from storage means and used to provide a representation on a graphical display on a user interface of the robot and its surroundings, the representation comprising a path of motion of the portion or point P located on the robot arm through the surroundings and of objects in the surroundings. a user manually placing the robot at a given position Po relative to objects in the surroundings of the robot, whereby a portion or point P located on the robot arm is moved to define one or more geometrical features relative to said objects (10, 11) in the surroundings of the robot by means of the sensor means and a relationship is established between said one or more geometrical features and first robot coordinates of a robot coordinate system by converting said first robot coordinates to second coordinates by which said one or more geometrical features can be specified; and a user subsequently instructing the robot to carry out movements of specific portions of the robot relative to said surroundings by reference to said one or more geometrical features, whereby said sensor means by means of which the one or more geometrical features were defined are also used for controlling the motors/joints (6, 7, 8) of the robot arm, wherein the one or more stored geometrical features are stored in and retrieved from storage means and used to provide a representation on a graphical display on a user interface of the robot and its surroundings, the representation comprising a path of motion of the portion or point P located on the robot arm through the surroundings and of objects in the surroundings.
A process for making cyclohexanone, the process comprising: feeding hydrogen and a hydrogenation feed into a hydrogenation reaction zone, the hydrogenation feed comprising, based on the total weight of the hydrogenation feed: phenol at a concentration in a range from 10 wt% to 99 wt%; cyclohexanone at a concentration in a range from 0.1 wt% to 50 wt%; cyclohexylbenzene at a concentration in a range from 0.001 wt% to 30 wt%; and bicyclohexane at a concentration in a range from 0.001 wt% to 30 wt%; and contacting at least a portion of the phenol with at least a portion of the hydrogen in the hydrogenation reaction zone in the presence of a hydrogenation catalyst under hydrogenation reaction conditions such that at least a portion of the phenol is converted to cyclohexanone, wherein the hydrogenation reaction conditions comprise a temperature in a range from 140°C to 300°C and an absolute pressure in a range from 100 kPa to 400 kPa, such that in the hydrogenation reaction zone at least one of the following conditions is met: (i) at least 90% of the cyclohexylbenzene is present in vapor phase; and (ii) at least 90% of the phenol is present in vapor phase. feeding hydrogen and a hydrogenation feed into a hydrogenation reaction zone, the hydrogenation feed comprising, based on the total weight of the hydrogenation feed: phenol at a concentration in a range from 10 wt% to 99 wt%; cyclohexanone at a concentration in a range from 0.1 wt% to 50 wt%; cyclohexylbenzene at a concentration in a range from 0.001 wt% to 30 wt%; and bicyclohexane at a concentration in a range from 0.001 wt% to 30 wt%; and phenol at a concentration in a range from 10 wt% to 99 wt%; cyclohexanone at a concentration in a range from 0.1 wt% to 50 wt%; cyclohexylbenzene at a concentration in a range from 0.001 wt% to 30 wt%; and bicyclohexane at a concentration in a range from 0.001 wt% to 30 wt%; and contacting at least a portion of the phenol with at least a portion of the hydrogen in the hydrogenation reaction zone in the presence of a hydrogenation catalyst under hydrogenation reaction conditions such that at least a portion of the phenol is converted to cyclohexanone, wherein the hydrogenation reaction conditions comprise a temperature in a range from 140°C to 300°C and an absolute pressure in a range from 100 kPa to 400 kPa, such that in the hydrogenation reaction zone at least one of the following conditions is met: (i) at least 90% of the cyclohexylbenzene is present in vapor phase; and (ii) at least 90% of the phenol is present in vapor phase. (i) at least 90% of the cyclohexylbenzene is present in vapor phase; and (ii) at least 90% of the phenol is present in vapor phase.