mhurhangee/ep-ind-claims huggingface dataset:
Method for controlling a vehicle cruise control in a vehicle comprising the steps of: - registering a starting point and an end destination for a possible traveling route of said vehicle; - registering a desired traveling time for said traveling route; - calculating and setting limits for parameters of said cruise control in order to arrive at said end destination on said desired traveling time with as low fuel consumption as possible; - selecting a gear shifting pattern of a transmission of the vehicle which is estimated to give the lowest fuel consumption based on said desired traveling time, wherein the gear shifting pattern comprises an upshift of the transmission at a first engine rotational speed; - recalculating said limits as soon as an unexpected vehicle stop happens when traveling between said starting point and said end destination, which vehicle stop affects vehicle average speed for arriving at the end destination on said desired traveling time, wherein said limits are recalculated based on said desired traveling time; and - selecting a new gear shifting pattern as soon as the unexpected vehicle stop happens, which new gear shifting pattern is estimated to give a lowest fuel consumption for arriving at the end destination on said desired traveling time after the unexpected vehicle stop happens, wherein the new gear shifting pattern comprises an upshift at a second, higher engine rotational speed if a lot of time has been lost during the unexpected vehicle stop. - registering a starting point and an end destination for a possible traveling route of said vehicle; - registering a desired traveling time for said traveling route; - calculating and setting limits for parameters of said cruise control in order to arrive at said end destination on said desired traveling time with as low fuel consumption as possible; - selecting a gear shifting pattern of a transmission of the vehicle which is estimated to give the lowest fuel consumption based on said desired traveling time, wherein the gear shifting pattern comprises an upshift of the transmission at a first engine rotational speed; - recalculating said limits as soon as an unexpected vehicle stop happens when traveling between said starting point and said end destination, which vehicle stop affects vehicle average speed for arriving at the end destination on said desired traveling time, wherein said limits are recalculated based on said desired traveling time; and - selecting a new gear shifting pattern as soon as the unexpected vehicle stop happens, which new gear shifting pattern is estimated to give a lowest fuel consumption for arriving at the end destination on said desired traveling time after the unexpected vehicle stop happens, wherein the new gear shifting pattern comprises an upshift at a second, higher engine rotational speed if a lot of time has been lost during the unexpected vehicle stop.
A band heater assembly for heating an object, the band heater assembly comprising: a band heater adapted to extend around at least a portion of a perimeter of the object, the band heater comprising; a cable comprising: a resistive element that generates thermal energy based on a current received from a power source; a jacket adapted to electrically insulate the resistive element and allow thermal energy transfer between the resistive element and a heated object; and a first cable end and a second cable end that are connected to respective ends of the band heater assembly; and a band that is connected to the cable and that transfers a first portion of the thermal energy to an exterior surface of the object; wherein the band and the jacket are formed as a single item such that the band is integrally formed as part of the cable and wherein the band comprises a non-metallic material molded over the resistive element; characterised in that the resistive element is offset within the band heater towards a side of the band heater that directly contacts the exterior surface when the band heater assembly is connected to the object. a band heater adapted to extend around at least a portion of a perimeter of the object, the band heater comprising; a cable comprising: a resistive element that generates thermal energy based on a current received from a power source; a jacket adapted to electrically insulate the resistive element and allow thermal energy transfer between the resistive element and a heated object; and a first cable end and a second cable end that are connected to respective ends of the band heater assembly; and a resistive element that generates thermal energy based on a current received from a power source; a jacket adapted to electrically insulate the resistive element and allow thermal energy transfer between the resistive element and a heated object; and a first cable end and a second cable end that are connected to respective ends of the band heater assembly; and a band that is connected to the cable and that transfers a first portion of the thermal energy to an exterior surface of the object; wherein the band and the jacket are formed as a single item such that the band is integrally formed as part of the cable and wherein the band comprises a non-metallic material molded over the resistive element; characterised in that the resistive element is offset within the band heater towards a side of the band heater that directly contacts the exterior surface when the band heater assembly is connected to the object.
A wheeled mobile robot controller compensation system comprising: a compensator signal receiver configured to receive a wheeled mobile robot input signal and further configured to receive a wheeled mobile robot output signal from a wheeled mobile robot; an identifier signal emitter configured to emit a wheeled mobile robot type signal comprising information that corresponds to the wheeled mobile robot type of the wheeled mobile robot; a compensator signal determiner configured to determine a controller output compensation signal, by taking into account the wheeled mobile robot input signal received by the compensator signal receiver and the wheeled mobile robot type signal, in order to compensate for environmental and systemic effects affecting motion control of the wheeled mobile robot; and a compensator signal emitter configured to emit the controller output compensation signal determined by the compensator signal determiner in order to refine a wheeled mobile robot controller output signal, characterised in that the wheeled mobile robot controller compensation system further comprises a wheeled robot type identifier configured to identify of which wheeled mobile robot type is the wheeled mobile robot, by taking into account the wheeled mobile robot output signal and the wheeled mobile robot input signal received by the compensator signal receiver. an identifier signal emitter configured to emit a wheeled mobile robot type signal comprising information that corresponds to the wheeled mobile robot type of the wheeled mobile robot; a compensator signal determiner configured to determine a controller output compensation signal, by taking into account the wheeled mobile robot input signal received by the compensator signal receiver and the wheeled mobile robot type signal, in order to compensate for environmental and systemic effects affecting motion control of the wheeled mobile robot; and a compensator signal emitter configured to emit the controller output compensation signal determined by the compensator signal determiner in order to refine a wheeled mobile robot controller output signal, characterised in that the wheeled mobile robot controller compensation system further comprises a wheeled robot type identifier configured to identify of which wheeled mobile robot type is the wheeled mobile robot, by taking into account the wheeled mobile robot output signal and the wheeled mobile robot input signal received by the compensator signal receiver.
A vehicle safety arrangement for a vehicle comprising a vehicle propellant amount determination unit, arranged to determine an amount of propellant stored in the vehicle, a vehicle passenger compartment, a vehicle motor, a communication unit and a vehicle occupant detection unit, arranged to detect at least one of - presence of at least one vehicle occupant and - a vehicle occupant condition, characterized in that it is arranged to initiate a communication indicative of the amount of propellant stored in the vehicle to an external recipient if - the presence of at least one vehicle occupant is detected within the vehicle passenger compartment and the vehicle motor has been inoperative for a threshold amount of time, or - a vehicle occupant condition is detected, which matches at least one predefined vehicle occupant condition. - presence of at least one vehicle occupant and - a vehicle occupant condition, - the presence of at least one vehicle occupant is detected within the vehicle passenger compartment and the vehicle motor has been inoperative for a threshold amount of time, or - a vehicle occupant condition is detected, which matches at least one predefined vehicle occupant condition.
Shading device holder to be mounted in front of the exterior of a building, wherein the shading device holder includes an inside cavity that can accommodate at least one part of the shading device holder and can be provided in the form of a molding that can be integrated in an insulation layer installed on the outside of a structure and can be adapted in terms of the material thickness thereof to the thickness of this insulation layer, wherein two reinforcements (3, 3/1) are integrated in the molding, the first reinforcement delimiting and/or reinforcing and/or forming the top edge of the cavity, and the second reinforcement (3/1) being provided in the installation direction above the first reinforcement, characterized in that the first and second reinforcements are statically connected through a reinforcement connection means.
A laser build-up method comprising the processes of: forming an annular counter sunk groove in an edge of an opening of a port on a side of a combustion chamber in a cylinder head roughly formed material; and irradiating a laser beam while a metallic powder is being supplied to the counter sunk groove and successively forming a cladding layer for a valve seat, wherein: the cladding layer is formed while seal gas is being sprayed onto a melt pool, the cladding layer comprises a starting end part, a part formed just after the starting end part is formed, an intermediate part, a part formed just before a terminating end part is formed, and a terminating end part, which are formed in this order, and the cladding layer is successively formed in an annular shape, and characterized in that the flow rate of the seal gas when an overlapped part in which the terminating end part overlaps with the starting end part is formed is made larger than the flow rate of the seal gas when the intermediate part is formed. forming an annular counter sunk groove in an edge of an opening of a port on a side of a combustion chamber in a cylinder head roughly formed material; and irradiating a laser beam while a metallic powder is being supplied to the counter sunk groove and successively forming a cladding layer for a valve seat, wherein: the cladding layer is formed while seal gas is being sprayed onto a melt pool, the cladding layer comprises a starting end part, a part formed just after the starting end part is formed, an intermediate part, a part formed just before a terminating end part is formed, and a terminating end part, which are formed in this order, and the cladding layer is successively formed in an annular shape, and characterized in that the flow rate of the seal gas when an overlapped part in which the terminating end part overlaps with the starting end part is formed is made larger than the flow rate of the seal gas when the intermediate part is formed. the cladding layer is formed while seal gas is being sprayed onto a melt pool, the cladding layer comprises a starting end part, a part formed just after the starting end part is formed, an intermediate part, a part formed just before a terminating end part is formed, and a terminating end part, which are formed in this order, and the cladding layer is successively formed in an annular shape, and characterized in that the flow rate of the seal gas when an overlapped part in which the terminating end part overlaps with the starting end part is formed is made larger than the flow rate of the seal gas when the intermediate part is formed.
An additive composition for a tile cement mortar, the additive composition comprising: cellulose ether and urea, wherein the amount of the urea is from 5 parts by weight to 43 parts by weight based on 100 parts by weight of the cellulose ether, wherein the cellulose ether comprises hydroxypropylmethylcellulose, hydroxyethylmethylcellulose, hydroxyethylethylcellulose, or a combination thereof. cellulose ether and urea, wherein the amount of the urea is from 5 parts by weight to 43 parts by weight based on 100 parts by weight of the cellulose ether, wherein the cellulose ether comprises hydroxypropylmethylcellulose, hydroxyethylmethylcellulose, hydroxyethylethylcellulose, or a combination thereof.
A resonator gyroscope comprising: a sensing system (12, 50) comprising a plurality of electrodes (18, 54, 56, 58, 60, 62, 64, 66, 68) arranged about a sensitive axis and configured to electrostatically force a resonator into a substantially periodic motion based on a plurality of forcer signals applied to the plurality of electrodes (18, 54, 56, 58, 60, 62, 64, 66, 68), and configured to provide an indication of rotation about a sensitive axis of the resonator gyroscope; and a controller configured to generate the plurality of forcer signals to provide the substantially periodic motion of the resonator concurrently in each of a plurality of separate vibration pattern modes having different frequencies and to measure the rotation of the resonator gyroscope about the sensitive axis in response to a plurality of pickoff signals associated with the substantially periodic motion in a first of the vibration pattern modes; characterised in that the controller is further configured to concurrently calibrate the resonator gyroscope in a second of the vibration pattern modes. a sensing system (12, 50) comprising a plurality of electrodes (18, 54, 56, 58, 60, 62, 64, 66, 68) arranged about a sensitive axis and configured to electrostatically force a resonator into a substantially periodic motion based on a plurality of forcer signals applied to the plurality of electrodes (18, 54, 56, 58, 60, 62, 64, 66, 68), and configured to provide an indication of rotation about a sensitive axis of the resonator gyroscope; and a controller configured to generate the plurality of forcer signals to provide the substantially periodic motion of the resonator concurrently in each of a plurality of separate vibration pattern modes having different frequencies and to measure the rotation of the resonator gyroscope about the sensitive axis in response to a plurality of pickoff signals associated with the substantially periodic motion in a first of the vibration pattern modes; characterised in that the controller is further configured to concurrently calibrate the resonator gyroscope in a second of the vibration pattern modes.
An EMS garment, for example, a suit, jacket, belt, shirt, trousers, armband, and/or legband, which carries a first number of EMS electrodes, wherein the first number of EMS electrodes for transmitting EMS stimuli, which consists of current pulses and/or alternating current having predefined value such as amplitude and frequency, from a connected EMS stimulus generating unit to the living body are each designed as a planar pad applied flexibly to the body or as a an electrically conducting conductive textile layer containing metallic or metallized threads, characterized in that the EMS garment has at least one sacrificial anode, which is electrically conductively connected to the respective EMS electrode, wherein the sacrificial anode consists of a material having a negative standard electrode potential in the electrochemical electromotive series or comprises such a material, wherein the at least one EMS electrode supporting a sacrificial anode has a crimp plug, snap, or press connection bushing, on which the conductive layer is electrically conductively pressed, welded thereto, or sewn thereto, and/or on which an EMS signal line is clamped, soldered, sewn, or plugged on or in using a matching plug, wherein the sacrificial anode is formed as a metal plate or strip attached to the crimp plug, snap, or the press connection bushing.
Heat pump unit comprising two circuits (2a,2b), wherein said two circuits (2a,2b) comprise a first sub-circuit adapted to perform a higher temperature heat pump cycle (HPCM_HT) with a respective operating fluid, and a second sub-circuit adapted to perform a lower temperature heat pump cycle (HPCM_LT) with a respective operating fluid, wherein said first and second sub-circuits are in a cascading heat exchange relationship with each other so as to perform globally a two-stage heat pump cycle, said two circuits comprising: - an evaporator adapted to perform the evaporation of the operating fluid at a lower pressure of the lower temperature heat pump cycle (HPCM_LT) and intended to be connected to an external circuit of a first thermal user installation in a cooling operating mode of said heat pump unit; - a condenser adapted to perform the condensation of the operating fluid at a higher pressure of the higher temperature heat pump cycle (HPCM_HT) and intended to be connected to an external circuit of a first heat sink in a cooling operating mode of said heat pump unit, and - a first heat exchanger, adapted to perform an undercooling of the operating fluid at the higher pressure of the higher temperature heat pump cycle (HPCM_HT) after the condensation of the same, characterized in that said first heat exchanger is selectively connectable to an external circuit of a second thermal user installation for transferring thereto heat power released by said operating fluid during said undercooling, said heat pump unit comprising switching means (V1, V2), adapted to allow an exchange of connections of the external circuits of said first thermal user installation and of said first heat sink with said evaporator and with said condenser, respectively. - an evaporator adapted to perform the evaporation of the operating fluid at a lower pressure of the lower temperature heat pump cycle (HPCM_LT) and intended to be connected to an external circuit of a first thermal user installation in a cooling operating mode of said heat pump unit; - a condenser adapted to perform the condensation of the operating fluid at a higher pressure of the higher temperature heat pump cycle (HPCM_HT) and intended to be connected to an external circuit of a first heat sink in a cooling operating mode of said heat pump unit, and - a first heat exchanger, adapted to perform an undercooling of the operating fluid at the higher pressure of the higher temperature heat pump cycle (HPCM_HT) after the condensation of the same,
A method comprising: providing within a hybrid record access application, a selectable option to access a first attachment associated with a first record, the first record being associated with one of a plurality of sandboxes (250, 252) such that a first of the plurality of sandboxes stores the first record having the first attachment and a second of the plurality of sandboxes stores a second record having a second attachment, the hybrid record access application configured to access records (291a, 291b) associated with the plurality of sandboxes (250, 252), the plurality of sandboxes (250, 252) configured to prevent data (227a, 227b) from moving between different sandboxes (250, 252); and initiating within the sandbox (250, 252) associated with the first record (291 a, 291 b), an application to access the first attachment when selection of the selectable option is received. providing within a hybrid record access application, a selectable option to access a first attachment associated with a first record, the first record being associated with one of a plurality of sandboxes (250, 252) such that a first of the plurality of sandboxes stores the first record having the first attachment and a second of the plurality of sandboxes stores a second record having a second attachment, the hybrid record access application configured to access records (291a, 291b) associated with the plurality of sandboxes (250, 252), the plurality of sandboxes (250, 252) configured to prevent data (227a, 227b) from moving between different sandboxes (250, 252); and initiating within the sandbox (250, 252) associated with the first record (291 a, 291 b), an application to access the first attachment when selection of the selectable option is received.
A composition containing - 3.0 % to 30 % by weight of a blocked di- or poly-isocyanate; - 10 % to 50 % by weight of a polysulphide polymer with the following formula: Wherein n is a whole number between 3 and 80; m is a whole number from 1 to 5; o is a whole number from 1 to 5; R 1 is a difunctional group containing 2 to 20 carbon atoms and 1 to 5 heteroatoms selected from N, P, S and 0; R 2 is a difunctional group containing 2 to 20 carbon atoms and 1 to 5 heteroatoms selected from N, P, S and 0; R 3 is a difunctional group containing 15 to 30 carbon atoms and 2 to 6 heteroatoms, wherein the heteroatoms are oxygen and it contains at least one aromatic ring; R 4 is a difunctional group containing 15 to 30 carbon atoms and 2 to 6 heteroatoms, wherein the heteroatoms are oxygen and it contains at least one aromatic ring; - 4.0 % to 15 % by weight of one or more reactive thinners; - 3.0 % to 12 % by weight of elemental sulphur; - 7.0 % to 20 % by weight of an amine hardener containing at least two hydrogen atoms bonded to nitrogen. - 3.0 % to 30 % by weight of a blocked di- or poly-isocyanate; - 10 % to 50 % by weight of a polysulphide polymer with the following formula: Wherein n is a whole number between 3 and 80; m is a whole number from 1 to 5; o is a whole number from 1 to 5; R 1 is a difunctional group containing 2 to 20 carbon atoms and 1 to 5 heteroatoms selected from N, P, S and 0; R 2 is a difunctional group containing 2 to 20 carbon atoms and 1 to 5 heteroatoms selected from N, P, S and 0; R 3 is a difunctional group containing 15 to 30 carbon atoms and 2 to 6 heteroatoms, wherein the heteroatoms are oxygen and it contains at least one aromatic ring; R 4 is a difunctional group containing 15 to 30 carbon atoms and 2 to 6 heteroatoms, wherein the heteroatoms are oxygen and it contains at least one aromatic ring; n is a whole number between 3 and 80; m is a whole number from 1 to 5; o is a whole number from 1 to 5; R 1 is a difunctional group containing 2 to 20 carbon atoms and 1 to 5 heteroatoms selected from N, P, S and 0; R 2 is a difunctional group containing 2 to 20 carbon atoms and 1 to 5 heteroatoms selected from N, P, S and 0; R 3 is a difunctional group containing 15 to 30 carbon atoms and 2 to 6 heteroatoms, wherein the heteroatoms are oxygen and it contains at least one aromatic ring; R 4 is a difunctional group containing 15 to 30 carbon atoms and 2 to 6 heteroatoms, wherein the heteroatoms are oxygen and it contains at least one aromatic ring; - 4.0 % to 15 % by weight of one or more reactive thinners; - 3.0 % to 12 % by weight of elemental sulphur; - 7.0 % to 20 % by weight of an amine hardener containing at least two hydrogen atoms bonded to nitrogen.