mhurhangee/ep-ind-claims huggingface dataset:
A wetsuit, comprising: a sleeve (3; 4), formed from at least a first material and a second material, the sleeve (3;4) having an upper arm portion and a forearm portion, wherein the first material defines a boundary that is arranged to extend from the forearm portion, around a bicep region in the upper arm portion and back to the forearm portion, and the second material is arranged to be positioned within the boundary in the bicep region and forearm portion, and wherein the first material has a first elastic modulus and the second material has a second elastic modulus, the first elastic modulus being greater than the second elastic modulus. a sleeve (3; 4), formed from at least a first material and a second material, the sleeve (3;4) having an upper arm portion and a forearm portion, wherein the first material defines a boundary that is arranged to extend from the forearm portion, around a bicep region in the upper arm portion and back to the forearm portion, and the second material is arranged to be positioned within the boundary in the bicep region and forearm portion, and wherein the first material has a first elastic modulus and the second material has a second elastic modulus, the first elastic modulus being greater than the second elastic modulus.
A device for converting a movement of a user into a voltage, the device comprising a neck cord, a piezoelectric sensor and a printed circuit board, characterized in that the neck cord is coupled to the piezoelectric sensor and arranged to provide in use a pulling force acting on the piezoelectric sensor in a first direction, the printed circuit board being coupled to the piezoelectric sensor, the weight of the printed circuit board causing in use a gravity force to act on the piezoelectric sensor in a second direction being different from the first direction such that the movement of the user wearing the neck cord results in a change in the shape of the piezoelectric sensor, the piezoelectric sensor generating the voltage in response to the change in the shape.
A wrought 6xxx aluminum alloy product consisting of: (a) 1.10 - 1.40 wt. Mg; (b) 0.70 - 0.95 wt. % Si; wherein (wt. % Mg) / (wt. % Si) is from 1.40 to 1.90; (c) 0.35 - 0.50 wt. % Cu; (d) less than 0.05 wt. % V; (e) from 0.05 to 1.0 wt. % of at least one secondary element, wherein the secondary element is selected from the group consisting of Fe, Cr, Mn, Zr, Ti, and combinations thereof; wherein at least one of Cr, Mn and Zr is present, and wherein the combined amount of Cr, Mn, and Zr in the 6xxx aluminum alloy is from 0.15 to 0.80 wt. %; wherein the 6xxx aluminum alloy includes not greater than 0.50 wt. % Mn as a secondary element; wherein the 6xxx aluminum alloy includes not greater than 0.40 wt. % Cr as a secondary element; wherein, when present, the 6xxx aluminum alloy includes not greater than 0.25 wt. % Zr as a secondary element; wherein, when present, the 6xxx aluminum alloy includes not greater than 0.80 wt. % Fe as a secondary element; wherein, when present, the 6xxx aluminum alloy includes not greater than 0.10 wt. % Ti as a secondary element; (f) the balance being aluminum and impurities. (a) 1.10 - 1.40 wt. Mg; (b) 0.70 - 0.95 wt. % Si; wherein (wt. % Mg) / (wt. % Si) is from 1.40 to 1.90; (c) 0.35 - 0.50 wt. % Cu; (d) less than 0.05 wt. % V; (e) from 0.05 to 1.0 wt. % of at least one secondary element, wherein the secondary element is selected from the group consisting of Fe, Cr, Mn, Zr, Ti, and combinations thereof; wherein at least one of Cr, Mn and Zr is present, and wherein the combined amount of Cr, Mn, and Zr in the 6xxx aluminum alloy is from 0.15 to 0.80 wt. %; wherein the 6xxx aluminum alloy includes not greater than 0.50 wt. % Mn as a secondary element; wherein the 6xxx aluminum alloy includes not greater than 0.40 wt. % Cr as a secondary element; wherein, when present, the 6xxx aluminum alloy includes not greater than 0.25 wt. % Zr as a secondary element; wherein, when present, the 6xxx aluminum alloy includes not greater than 0.80 wt. % Fe as a secondary element; wherein, when present, the 6xxx aluminum alloy includes not greater than 0.10 wt. % Ti as a secondary element; (f) the balance being aluminum and impurities.
A high altitude platform (200, 200a-b) comprising: receiver optics (308, 308a-b) configured to receive a first optical signal (320, 320a) from another high altitude platform (200, 200a-b) through a free space optical link; transmitter optics (306, 306a-b) configured to transmit a second optical signal (320, 320a-b) to the other high altitude platform (200, 200a-b) through the optical link; and control hardware (800, 800a-b) in communication with the receiver optics (308, 308a-b) and the transmitter optics (306, 306a-b), the control hardware (800, 800a-b) configured to: determine a receiving power for the optical link based on the first optical signal (320, 320a-b); and adjust an output amplification at the transmitter optics (306, 306a-b) based on the receiving power for the optical link, the output amplification adjusted to provide the second optical signal (320, 320a-b) with a minimum transmission power for maintaining the optical link. receiver optics (308, 308a-b) configured to receive a first optical signal (320, 320a) from another high altitude platform (200, 200a-b) through a free space optical link; transmitter optics (306, 306a-b) configured to transmit a second optical signal (320, 320a-b) to the other high altitude platform (200, 200a-b) through the optical link; and control hardware (800, 800a-b) in communication with the receiver optics (308, 308a-b) and the transmitter optics (306, 306a-b), the control hardware (800, 800a-b) configured to: determine a receiving power for the optical link based on the first optical signal (320, 320a-b); and adjust an output amplification at the transmitter optics (306, 306a-b) based on the receiving power for the optical link, the output amplification adjusted to provide the second optical signal (320, 320a-b) with a minimum transmission power for maintaining the optical link. determine a receiving power for the optical link based on the first optical signal (320, 320a-b); and adjust an output amplification at the transmitter optics (306, 306a-b) based on the receiving power for the optical link, the output amplification adjusted to provide the second optical signal (320, 320a-b) with a minimum transmission power for maintaining the optical link.
A method of operating a personal electronic device (202; 302; 402) and an in-vehicle infotainment system (204; 304; 404), the method comprising the steps of: running an application on the personal electronic device (202; 302; 402); recording user inputs to the personal electronic device with the personal electronic device; determining an activity being performed by a user on the personal electronic device based on the recorded user inputs; sensing that the personal electronic device (202; 302; 402) has been, or soon will be, carried into a vehicle that includes the in-vehicle infotainment system (204; 304; 404), the sensing step including receiving at the personal electronic device (202; 302; 402) a signal from at least one of: a vehicle door unlock sensor; a vehicle seat occupancy sensor; a vehicle ignition sensor; or a seat adjustment assembly; in response to the sensing step, transferring information regarding a state of the personal electronic device (202; 302; 402) to the in-vehicle infotainment system (204; 304; 404), the information at least including the determined activity being performed by the user; selecting an application for the in-vehicle infotainment system (204; 304; 404) that is able to reproduce the determined activity being performed by the user; and using the selected application to replicate the state of the personal electronic device (202; 302; 402) on the in-vehicle infotainment system. running an application on the personal electronic device (202; 302; 402); recording user inputs to the personal electronic device with the personal electronic device; determining an activity being performed by a user on the personal electronic device based on the recorded user inputs; sensing that the personal electronic device (202; 302; 402) has been, or soon will be, carried into a vehicle that includes the in-vehicle infotainment system (204; 304; 404), the sensing step including receiving at the personal electronic device (202; 302; 402) a signal from at least one of: a vehicle door unlock sensor; a vehicle seat occupancy sensor; a vehicle ignition sensor; or a seat adjustment assembly; a vehicle door unlock sensor; a vehicle seat occupancy sensor; a vehicle ignition sensor; or a seat adjustment assembly; in response to the sensing step, transferring information regarding a state of the personal electronic device (202; 302; 402) to the in-vehicle infotainment system (204; 304; 404), the information at least including the determined activity being performed by the user; selecting an application for the in-vehicle infotainment system (204; 304; 404) that is able to reproduce the determined activity being performed by the user; and using the selected application to replicate the state of the personal electronic device (202; 302; 402) on the in-vehicle infotainment system.
A method for manufacturing a belt for a paper, board, pulp or tissue machine, the belt comprising a body, and a reinforcing structure (31, 32), the belt having an inner surface and an outer surface, wherein the method comprises: - applying a coating comprising a solid lubricant on to a casting cylinder, - drying the coating comprising the solid lubricant, thereby obtaining solid lubricant particles on the casting cylinder, - casting a body material onto the casting cylinder in order to form the body on the solid lubricant particles, and - providing the reinforcement structure (31, 32) into the belt, thereby obtaining the belt in which the solid lubricant particles forms at least part of the inner surface of the belt. - applying a coating comprising a solid lubricant on to a casting cylinder, - drying the coating comprising the solid lubricant, thereby obtaining solid lubricant particles on the casting cylinder, - casting a body material onto the casting cylinder in order to form the body on the solid lubricant particles, and - providing the reinforcement structure (31, 32) into the belt, thereby obtaining the belt in which the solid lubricant particles forms at least part of the inner surface of the belt.
The use of an insert for adhesion, sealing, and isolating in a non-planar joint between two dissimilar materials (12, 14) wherein the insert bonds the two dissimilar materials (12, 14) and resists any displacement that would bring the two dissimilar materials into direct contact with one another; the insert comprising a generally non-conductive isolator; a matrix material in contact with the isolator and having a tackiness in its green state, the matrix material being cured by exposure to heat, wherein the insert includes one or more apertures (24, 25) having edges at least partially brought together when said insert is applied onto a non-planar surface so that a shape of the insert generally corresponds to the non-planar surface thereby reducing or eliminating any gaps formed between the non-planar surface and the insert, bunching of the insert, or both.
Method for the pressure-based determination of a product parameter in a freeze dryer comprising the following methods steps: a) closure of a closing element arranged between an ice chamber and a drying chamber at a point in time t START and for a time span between the point in time t START and a point in time t ENDE, b) measuring of pressure values ( P 1, P 2,...) in the drying chamber during the time span between the point in time t START and the point in time t ENDE, c) determination of an approximation of the product parameter from the pressure values ( P 1, P 2,...) measured during the time span between the point in time t START and the point in time t ENDE and d) opening of the closing element at the point in time t ENDE, characterized in that e) the point in time t ENDE and the approximation of the product parameter which is considered for the determination of the point in time t ENDE are determined specifically for the pressure values ( P, P 2,...) measured during the time span between the point in time T START. and a point in time t ENDE. a) closure of a closing element arranged between an ice chamber and a drying chamber at a point in time t START and for a time span between the point in time t START and a point in time t ENDE, b) measuring of pressure values ( P 1, P 2,...) in the drying chamber during the time span between the point in time t START and the point in time t ENDE, c) determination of an approximation of the product parameter from the pressure values ( P 1, P 2,...) measured during the time span between the point in time t START and the point in time t ENDE and d) opening of the closing element at the point in time t ENDE, characterized in that e) the point in time t ENDE and the approximation of the product parameter which is considered for the determination of the point in time t ENDE are determined specifically for the pressure values ( P, P 2,...) measured during the time span between the point in time T START. and a point in time t ENDE.
A valve having an inlet and an outlet and comprising a body defining a fluid passage therethrough, the body comprising (a) a flexible wall and (b) a mouth intermediate the inlet and the outlet, the mouth being shaped generally in the form of a "V" or parabola, characterized in that the body: - has an interior surface, - comprises teeth and recesses, the teeth being formed on the interior surface, and the recesses being created within the interior surface. - has an interior surface, - comprises teeth and recesses, the teeth being formed on the interior surface, and the recesses being created within the interior surface.
A reed switch glass tube comprising: a compressive stress layer (2, 21, 22, 23) formed at an end part of the glass tube, the compressive stress layer being formed on an outer circumference surface of the glass tube in the end part has a length of 0.1 mm to 0.6 mm in a longitudinal direction.
Fiber batting for the manufacture of thermally insulating composite comprising: - a semi-rigid fibrous batt including mineral wool fibers bonded by a binder - a facing sheet adhered to one outer main surface of the fibrous batt by means of a binder or adhesive, wherein - the density of the semi-rigid fibrous batt is above 20 kg/m3, especially selected in the range from 22 to 35 kg/m3, - the thickness of the fibrous batt is at least 15 mm, especially 20 mm - the mineral wool fibers are arranged in a substantially laminar layout with a majority of fibers parallel to the main face, - the batt being provided in a rolled form with the facing sheet interior to the roll and is packaged into a roll packaged unit. - a semi-rigid fibrous batt including mineral wool fibers bonded by a binder - a facing sheet adhered to one outer main surface of the fibrous batt by means of a binder or adhesive, wherein - the density of the semi-rigid fibrous batt is above 20 kg/m3, especially selected in the range from 22 to 35 kg/m3, - the thickness of the fibrous batt is at least 15 mm, especially 20 mm - the mineral wool fibers are arranged in a substantially laminar layout with a majority of fibers parallel to the main face, - the batt being provided in a rolled form with the facing sheet interior to the roll and is packaged into a roll packaged unit.
System with a signalling device and a signalling device evaluation apparatus arranged decentrally in respect of the signalling device, wherein the signalling device comprises a first and second sensor (3, 4), a first and second moveably supported plunger (13, 14) and an evaluation unit, wherein the first sensor acquires a first position of the first plunger in a contactless manner and the second sensor acquires a first position of the second plunger in a contactless manner, wherein the signalling device evaluation apparatus comprises a first and second output (23, 24) and a first and second input (33, 34) and for reliable acquisition of the switching state of the signalling device sends a first dynamic signal by way of the first output and a second dynamic signal by way of the second output, which second signal differs from the first dynamic signal, wherein the signalling device evaluation apparatus is connected to the signalling device such that a first dynamic signal output by way of the first output can be guided by way of the signalling device to the first input and a second dynamic signal output by way of the second output can be guided by way of the signalling device to the second input, wherein the evaluation unit changes the first dynamic signal guided by way of the signalling device if the first position of the first plunger is determined and changes the second dynamic signal guided by way of the signalling device if the first position of the second plunger is determined, wherein the signalling device evaluation apparatus is embodied such that it monitors the first and second input (33, 34) and determines the switching state of the signalling device therefrom.
Process for preparing polyether carbonate polyols by addition of alkylene oxides and carbon dioxide onto carboxylic acids in the presence of a double metal cyanide catalyst, wherein one or more carboxylic acids are metered into the reactor continuously during the reaction, characterized in that - the carboxylic acid is at least difunctional and has a pKa of not less than 1.5, - the addition of the one or more carboxylic acids is effected such that at any point in time in the process according to the invention the molar concentration of unconverted carboxylic acid in the reaction mixture does not exceed a value of 0.001 mol/g multiplied by the mass of the catalyst employed per liter of reaction mixture reported in grams, and - two carboxylic acid groups present in the same molecule are separated from one another at least by a carbon atom. - the carboxylic acid is at least difunctional and has a pKa of not less than 1.5, - the addition of the one or more carboxylic acids is effected such that at any point in time in the process according to the invention the molar concentration of unconverted carboxylic acid in the reaction mixture does not exceed a value of 0.001 mol/g multiplied by the mass of the catalyst employed per liter of reaction mixture reported in grams, and - two carboxylic acid groups present in the same molecule are separated from one another at least by a carbon atom.
A hub (30, 130, 430) for a sheath, catheter, or other tubular device, comprising: a tubular body (31, 131, 431) comprising a proximal end, a distal end, and a hub passage extending between the proximal end and the distal end; a valve mounted in the tubular body adjacent the proximal end comprising a proximal surface adjacent the proximal end and a distal surface adjacent an intermediate region of the hub passage; a side port (40, 140, 240, 340) comprising a first end (42, 142, 242, 342) coupled to an outer surface of the tubular body adjacent the intermediate region, a second outer end (44, 144), and a port passage (46, 146, 246, 346) extending between the second end and the first end and communicating with the intermediate region of the hub passage; characterized in that: the side port defines a port axis (48, 148) that intersects a longitudinal axis (38, 138) of the tubular body to define an acute angle (Θ); and a guide element (60, 160, 260, 360, 446b) is provided in the side port adjacent the first end for directing at least some of the fluid introduced into the second end through the port passage proximally within the intermediate region towards the distal surface of the valve. a tubular body (31, 131, 431) comprising a proximal end, a distal end, and a hub passage extending between the proximal end and the distal end; a valve mounted in the tubular body adjacent the proximal end comprising a proximal surface adjacent the proximal end and a distal surface adjacent an intermediate region of the hub passage; a side port (40, 140, 240, 340) comprising a first end (42, 142, 242, 342) coupled to an outer surface of the tubular body adjacent the intermediate region, a second outer end (44, 144), and a port passage (46, 146, 246, 346) extending between the second end and the first end and communicating with the intermediate region of the hub passage; characterized in that: the side port defines a port axis (48, 148) that intersects a longitudinal axis (38, 138) of the tubular body to define an acute angle (Θ); and a guide element (60, 160, 260, 360, 446b) is provided in the side port adjacent the first end for directing at least some of the fluid introduced into the second end through the port passage proximally within the intermediate region towards the distal surface of the valve. the side port defines a port axis (48, 148) that intersects a longitudinal axis (38, 138) of the tubular body to define an acute angle (Θ); and a guide element (60, 160, 260, 360, 446b) is provided in the side port adjacent the first end for directing at least some of the fluid introduced into the second end through the port passage proximally within the intermediate region towards the distal surface of the valve.
A display apparatus (100, 200, 300, 500A, 500B) comprising a housing, a display unit, and a backlight module, wherein the display apparatus further comprises a first image capturing device (130, 130A), wherein the first image capturing device (130, 130A) is located in the housing and is used for capturing a first image being displayed or played on the display unit, characterized in that the first image capturing device (130, 130A) is located at the periphery of an optical cavity formed between the display unit and the backlight module so as not to overlap the display area of the display unit and for capturing said first image being displayed or played on the display unit through the optical cavity.