mhurhangee/ep-ind-claims huggingface dataset:
A cooking apparatus comprising: a casing; a cooking chamber formed inside the casing; a duct member formed outside the cooking chamber to extend from a first plate of the cooking chamber to a second plate forming an upper surface of the cooking chamber; a heater installed inside the duct member; and a fan installed inside the duct member and configured to blow air in the duct member, wherein the cooking chamber is formed to cook food using high-temperature air discharged into the cooking chamber through a first outlet part formed at the second plate, wherein the first outlet part includes a plurality of outlet holes and is located in a first area corresponding to a central area of the second plate, and characterized in that the plurality of outlet holes is spirally disposed outward from a center portion of the first area, wherein a first distance between a first outlet hole randomly selected from the plurality of outlet holes and a second outlet hole outwardly adjacent to the first outlet hole on a spiral line has a distance increased by a certain proportion from a second distance between the first outlet hole and a third outlet hole inwardly adjacent to the first outlet hole on the spiral line. a casing; a cooking chamber formed inside the casing; a duct member formed outside the cooking chamber to extend from a first plate of the cooking chamber to a second plate forming an upper surface of the cooking chamber; a heater installed inside the duct member; and a fan installed inside the duct member and configured to blow air in the duct member, wherein the cooking chamber is formed to cook food using high-temperature air discharged into the cooking chamber through a first outlet part formed at the second plate, wherein the first outlet part includes a plurality of outlet holes and is located in a first area corresponding to a central area of the second plate, and characterized in that the plurality of outlet holes is spirally disposed outward from a center portion of the first area, wherein a first distance between a first outlet hole randomly selected from the plurality of outlet holes and a second outlet hole outwardly adjacent to the first outlet hole on a spiral line has a distance increased by a certain proportion from a second distance between the first outlet hole and a third outlet hole inwardly adjacent to the first outlet hole on the spiral line.
A computer-implemented method, comprising: obtaining, by one or more computing devices, a request for navigational directions to a target destination; determining, by the one or more computing devices, an outbound journey route from an initial location to the target destination, wherein the outbound journey route comprises an estimated outbound journey time; determining, by the one or more computing devices, a return journey route based at least in part on one or more operations performed by one or more machine-learned models, wherein the return journey route comprises a route from the target destination to a return destination wherein the return destination is the initial location, and wherein the return journey route comprises an estimated return journey time; comparing, by the one or more computing devices, the estimated outbound journey time to the estimated return journey time; and generating, by the one or more computing devices, a notification regarding the return journey route when comparing the estimated outbound journey time to the estimated return journey time results in a determination that the estimated return journey time is greater than the estimated outbound journey time, wherein the notification regarding the return journey route comprises a time difference between the estimated outbound journey time and the estimated return journey time. obtaining, by one or more computing devices, a request for navigational directions to a target destination; determining, by the one or more computing devices, an outbound journey route from an initial location to the target destination, wherein the outbound journey route comprises an estimated outbound journey time; determining, by the one or more computing devices, a return journey route based at least in part on one or more operations performed by one or more machine-learned models, wherein the return journey route comprises a route from the target destination to a return destination wherein the return destination is the initial location, and wherein the return journey route comprises an estimated return journey time; comparing, by the one or more computing devices, the estimated outbound journey time to the estimated return journey time; and generating, by the one or more computing devices, a notification regarding the return journey route when comparing the estimated outbound journey time to the estimated return journey time results in a determination that the estimated return journey time is greater than the estimated outbound journey time, wherein the notification regarding the return journey route comprises a time difference between the estimated outbound journey time and the estimated return journey time.
An induction heating device comprising: a working coil for creating a magnetic field for induction of eddy current in a cooking utensil so as to heat the cooking utensil; a power supply unit for providing induction voltage to operate the working coil; a temperature sensor for measuring a temperature of the cooking utensil; a first lighting unit for emitting visually perceivable light; a second lighting unit for emitting visually perceivable light; and a control unit for controlling the first lighting unit based on the temperature of the cooking utensil transmitted from the temperature sensor, characterised in that, when the temperature of the cooking utensil is equal to a set temperature, the control unit is configured to perform control such that the first lighting unit and the second lighting unit emit light of a same color, and wherein, when the temperature of the cooking utensil has a value between a set temperature and an initial temperature, the control unit is configured to perform control such that the first lighting unit emits light of a color representing a mixture of a color of light from the first lighting unit corresponding to the initial temperature and a color of light from the second lighting unit. a working coil for creating a magnetic field for induction of eddy current in a cooking utensil so as to heat the cooking utensil; a power supply unit for providing induction voltage to operate the working coil; a temperature sensor for measuring a temperature of the cooking utensil; a first lighting unit for emitting visually perceivable light; a second lighting unit for emitting visually perceivable light; and a control unit for controlling the first lighting unit based on the temperature of the cooking utensil transmitted from the temperature sensor, characterised in that, when the temperature of the cooking utensil is equal to a set temperature, the control unit is configured to perform control such that the first lighting unit and the second lighting unit emit light of a same color, and wherein, when the temperature of the cooking utensil has a value between a set temperature and an initial temperature, the control unit is configured to perform control such that the first lighting unit emits light of a color representing a mixture of a color of light from the first lighting unit corresponding to the initial temperature and a color of light from the second lighting unit.
A personal flotation device (10; 200; 220; 240; 260; 280), comprising: a chest portion having a top region and a bottom region; an abdominal portion; a connecting portion positioned between the bottom region of the chest portion and the abdominal portion and extending only from a center region of the chest portion, characterized in that the width of the connecting portion is smaller than the width of the abdominal portion, wherein the abdominal portion provides buoyancy; a first shoulder portion and a second shoulder portion each extend from the chest portion; and the ratio of the width of the connecting portion to the width of the chest portion is approximately 1:3 or less, wherein, when worn, the connecting portion extends along a wearer's sternum and is constructed to be sufficiently narrow such that the personal flotation device does not substantially overlie a wearer's ribcage. a chest portion having a top region and a bottom region; an abdominal portion; a connecting portion positioned between the bottom region of the chest portion and the abdominal portion and extending only from a center region of the chest portion, characterized in that
An inflatable stand up paddleboard comprising a body which is inflatable for use of the inflatable stand up paddleboard and which is deflatable for storage and/or transportation of the inflatable stand up paddleboard, at least one strengthening member for increasing the rigidity of the body when it is inflated, and retainer means for the strengthening member, and characterised in that the retainer means releasably retains the strengthening member along a side of the body whereby the strengthening member is able to be retained along the side of the body when the body is inflated and to be removed from the side of the body when the body is deflated, and the retainer means is a pocket with an open end and a closed end, the open end facing a rear part of the inflatable stand up paddleboard whereby the retainer means provides minimal resistance to water during use of the inflatable stand up paddleboard.
A method for coating a substrate comprising: (a) contacting the substrate with a pretreatment solution comprising a group IIIB metal and/or a group IVB metal and an electropositive metal (a metal that is more electropositive than the metallic substrate); (b) contacting the substrate with an anionic resin-based post rinse composition comprising an anionic resin; and (c) electrophoretically depositing a cationic electrodepositable coating composition onto the substrate. (a) contacting the substrate with a pretreatment solution comprising a group IIIB metal and/or a group IVB metal and an electropositive metal (a metal that is more electropositive than the metallic substrate); (b) contacting the substrate with an anionic resin-based post rinse composition comprising an anionic resin; and (c) electrophoretically depositing a cationic electrodepositable coating composition onto the substrate.
A method to reduce interference, the method comprising: grouping users into a first and second group of access terminals according to predetermined criteria, wherein the second group has communication characteristic different from that of the first group; storing samples of data frames transmitted asynchronously from a plurality of access terminals wherein user frame offsets are staggered with respect to each other; demodulating and attempting (904, 906) to decode a first frame of data from the stored samples, the first frame of data sent from the first group of access terminals; if the first frame of data is correctly decoded, subtracting the decoded first frame from the stored samples; demodulating and attempting (904, 906) to decode a second frame of data from the stored samples, the second frame of data sent from the second group of access terminals; and if the second frame of data is correctly decoded, subtracting the decoded second frame from the stored samples and attempting (904, 906) to decode a frame of users on a previous frame offset that failed to previously decode. grouping users into a first and second group of access terminals according to predetermined criteria, wherein the second group has communication characteristic different from that of the first group; storing samples of data frames transmitted asynchronously from a plurality of access terminals wherein user frame offsets are staggered with respect to each other; demodulating and attempting (904, 906) to decode a first frame of data from the stored samples, the first frame of data sent from the first group of access terminals; if the first frame of data is correctly decoded, subtracting the decoded first frame from the stored samples; demodulating and attempting (904, 906) to decode a second frame of data from the stored samples, the second frame of data sent from the second group of access terminals; and if the second frame of data is correctly decoded, subtracting the decoded second frame from the stored samples and attempting (904, 906) to decode a frame of users on a previous frame offset that failed to previously decode.
A pipe joint (10, 100) comprising a body (12, 102) into which a tube is insertable, a chuck disposed in an interior of the body (12, 102) and which retains the tube in the body (12, 102) by engagement with an outer peripheral surface of the tube, a guide member that guides the chuck along an axial direction, a packing disposed in the interior of the body (12, 102) for maintaining a fluidtight condition between the body (12, 102) and the tube, and a release member for releasing the chuck from the tube when the tube is taken out from the body (12, 102), the packing further comprising: a ring shaped main body portion; and a sealing member, which projects in a radial inward direction with respect to the main body portion, the sealing member abutting against the outer peripheral surface of the tube, characterized in that the packing has a substantially T-shape in cross-section, wherein a width dimension of the sealing member along the axial direction of the body (12, 102) is set to be smaller than a width dimension of the main body portion. a ring shaped main body portion; and a sealing member, which projects in a radial inward direction with respect to the main body portion, the sealing member abutting against the outer peripheral surface of the tube, characterized in that the packing has a substantially T-shape in cross-section, wherein a width dimension of the sealing member along the axial direction of the body (12, 102) is set to be smaller than a width dimension of the main body portion.
A chewing gum composition comprising a gum base matrix and a bulk portion, wherein the chewing gum composition comprises nicotine and includes a cross-linked polyacrylic acid added in an amount of 0.1 to 5.0% by weight of the chewing gum composition, wherein the cross-linked polyacrylic acid is a polycarbophil or a carbomer.
Cooking appliance having a vapour condenser and a condenser housing, at least one heat exchanger module disposed in the condenser housing and at least one feed opening through which vapour can be fed into the heat exchanger module as a process medium, wherein further a condensation drain opening leading out of the heat exchanger module is provided for discharging condensed vapour, wherein at least one heat exchanger module is releasably fixed in the condenser housing and is disposed in a manner removable from the condenser housing in the final assembled state of the vapour condenser, characterized in that the at least one heat exchanger module is disposed in an insertion opening formed in the condenser housing, into which insertion opening the heat exchanger module can be inserted in the manner of a drawer by a simple translational movement in only one direction and through which it can be drawn back out by a movement in the opposite direction, and wherein cooling lines passing through the heat exchanger module are provided which enable the first heat exchanger module being flowed through by a coolant. wherein at least one heat exchanger module is releasably fixed in the condenser housing and is disposed in a manner removable from the condenser housing in the final assembled state of the vapour condenser, characterized in that the at least one heat exchanger module is disposed in an insertion opening formed in the condenser housing, into which insertion opening the heat exchanger module can be inserted in the manner of a drawer by a simple translational movement in only one direction and through which it can be drawn back out by a movement in the opposite direction, and wherein cooling lines passing through the heat exchanger module are provided which enable the first heat exchanger module being flowed through by a coolant.
A method of shaping hair comprising the following sequential steps: i) treating the hair by topical application of a hair treatment composition comprising from 2 to 25 wt% of one or more C 2-4 monoaldehydes,whereby the one or more C 2-4 monoaldehydes are combined with one or more additional hair shaping actives whereby the total level of C 2-4 monoaldehyde and additional hair shaping active ranges from 4 to 15 wt%, by weight of the total weight of the hair treatment composition, and wherein the C 2-4 monoaldehyde is glyceraldehyde and the hair shaping active is selected from citric acid or lysine and whereby the weight ratio of the glyceraldehyde to the citric acid or lysine in the mixture ranges from 5:1 to 1:2; and ii) mechanically shaping the treated hair i) treating the hair by topical application of a hair treatment composition comprising from 2 to 25 wt% of one or more C 2-4 monoaldehydes,whereby the one or more C 2-4 monoaldehydes are combined with one or more additional hair shaping actives whereby the total level of C 2-4 monoaldehyde and additional hair shaping active ranges from 4 to 15 wt%, by weight of the total weight of the hair treatment composition, and wherein the C 2-4 monoaldehyde is glyceraldehyde and the hair shaping active is selected from citric acid or lysine and whereby the weight ratio of the glyceraldehyde to the citric acid or lysine in the mixture ranges from 5:1 to 1:2; and ii) mechanically shaping the treated hair
A method for incorporating one or more germanium layers in a standard CMOS flow, comprising: processing a silicon-based substrate using a standard CMOS process; depositing a first silicon oxynitride - Si x O y N z - layer overlying the silicon-based substrate; etching the first silicon oxynitride layer to form a trench in the silicon oxynitride, thereby forming a pattern in said first silicon oxynitride layer on said substrate as defined by a first region of the silicon oxynitride spaced apart laterally from a second region of the silicon oxynitride and above the silicon-based substrate; depositing a first germanium layer into a portion of the trench wherein said germanium layer is deposited as part of a CMOS process, the trench being formed by the first region of silicon oxynitride, the silicon-based substrate, and the second region of silicon oxynitride, wherein the silicon oxynitride material serves as a mask for selective germanium growth on the area of the silicon-based substrate left uncovered by the patterned first silicon oxynitride layer; and resuming the standard CMOS flow. processing a silicon-based substrate using a standard CMOS process; depositing a first silicon oxynitride - Si x O y N z - layer overlying the silicon-based substrate; etching the first silicon oxynitride layer to form a trench in the silicon oxynitride, thereby forming a pattern in said first silicon oxynitride layer on said substrate as defined by a first region of the silicon oxynitride spaced apart laterally from a second region of the silicon oxynitride and above the silicon-based substrate; depositing a first germanium layer into a portion of the trench wherein said germanium layer is deposited as part of a CMOS process, the trench being formed by the first region of silicon oxynitride, the silicon-based substrate, and the second region of silicon oxynitride, wherein the silicon oxynitride material serves as a mask for selective germanium growth on the area of the silicon-based substrate left uncovered by the patterned first silicon oxynitride layer; and resuming the standard CMOS flow.
A method for controlling a wind power installation, wherein - the wind power installation has a rotor with a plurality of rotor blades, - the rotor blades are adjustable in their blade angle, - each rotor blade is activatable individually, - for the individual activation, in each case a total adjustment rate R of which indicates an intended speed of change of the respective blade angle is predetermined, - a collective blade angle identical for all of the rotor blades is provided, - a collective adjustment rate (Rc) identical for all of the rotor blades describes an intended speed of change of the collective blade angle, - an individual offset angle (α of) which indicates a value by which the blade angle is intended to deviate from the collective blade angle (α c) is predetermined for each rotor blade, - an individual feed forward control adjustment rate which indicates an adjustment rate which is provided for reaching the offset angle is determined for each rotor blade from the individual offset angle, - an individual offset deviation is determined for each rotor blade depending on a comparison of the individual offset angle (α of) and a detected blade angle of the rotor blade, and - the total adjustment rate of each rotor blade is determined depending on - the collective blade angle and/or the collective adjustment rate, - the individual feed forward control adjustment rate, and - the individual offset deviation. - the wind power installation has a rotor with a plurality of rotor blades, - the rotor blades are adjustable in their blade angle, - each rotor blade is activatable individually, - for the individual activation, in each case a total adjustment rate R of which indicates an intended speed of change of the respective blade angle is predetermined, - a collective blade angle identical for all of the rotor blades is provided, - a collective adjustment rate (Rc) identical for all of the rotor blades describes an intended speed of change of the collective blade angle, - an individual offset angle (α of) which indicates a value by which the blade angle is intended to deviate from the collective blade angle (α c) is predetermined for each rotor blade, - an individual feed forward control adjustment rate which indicates an adjustment rate which is provided for reaching the offset angle is determined for each rotor blade from the individual offset angle, - an individual offset deviation is determined for each rotor blade depending on a comparison of the individual offset angle (α of) and a detected blade angle of the rotor blade, and - the total adjustment rate of each rotor blade is determined depending on - the collective blade angle and/or the collective adjustment rate, - the individual feed forward control adjustment rate, and - the individual offset deviation. - the collective blade angle and/or the collective adjustment rate, - the individual feed forward control adjustment rate, and - the individual offset deviation.
Method for processing an Ethernet message comprising an incorrect timestamp, in which the following steps are performed: - a control unit receiving an Ethernet message comprising a timestamp; - determining a time difference between a global time of the timestamp and a local time of a clock of the control unit; and - identifying the timestamp of the Ethernet message as incorrect, wherein the global time of the timestamp is replaced by the local time of the clock of the control unit if the timestamp is identified as incorrect, characterized in that the global time of a timestamp of at least one further Ethernet message subsequent to the Ethernet message is replaced by the local time of the clock of the control unit if the timestamp of the Ethernet message is incorrect. - a control unit receiving an Ethernet message comprising a timestamp; - determining a time difference between a global time of the timestamp and a local time of a clock of the control unit; and - identifying the timestamp of the Ethernet message as incorrect, wherein the global time of the timestamp is replaced by the local time of the clock of the control unit if the timestamp is identified as incorrect, characterized in that the global time of a timestamp of at least one further Ethernet message subsequent to the Ethernet message is replaced by the local time of the clock of the control unit if the timestamp of the Ethernet message is incorrect.