mhurhangee/ep-ind-claims huggingface dataset:
A surface cleaning apparatus for cleaning a floor surface, comprising: a steam unit comprising a steam unit housing, a steam generator provided in the steam unit housing, and a supply tank in fluid communication with the steam generator; an elongated wand coupled with an outlet of the steam unit; a base coupled with the wand and adapted to move over a surface to be cleaned, the base comprising: a base housing comprising a brush chamber; a brushroll in the brush chamber and adapted to contact the surface to be cleaned to sweep dirt and liquid into the base, wherein the brushroll is removable from the base housing; a collection bin mounted on the base housing in a location and receive dirt and liquid swept into the base by the brushroll; and characterized in that a steam distributor is in fluid communication with the steam generator via the wand, the steam distributor being positioned to dispense steam onto the brushroll. a steam unit comprising a steam unit housing, a steam generator provided in the steam unit housing, and a supply tank in fluid communication with the steam generator; an elongated wand coupled with an outlet of the steam unit; a base coupled with the wand and adapted to move over a surface to be cleaned, the base comprising: a base housing comprising a brush chamber; a brushroll in the brush chamber and adapted to contact the surface to be cleaned to sweep dirt and liquid into the base, wherein the brushroll is removable from the base housing; a collection bin mounted on the base housing in a location and receive dirt and liquid swept into the base by the brushroll; and characterized in that a steam distributor is in fluid communication with the steam generator via the wand, the steam distributor being positioned to dispense steam onto the brushroll. a base housing comprising a brush chamber; a brushroll in the brush chamber and adapted to contact the surface to be cleaned to sweep dirt and liquid into the base, wherein the brushroll is removable from the base housing; a collection bin mounted on the base housing in a location and receive dirt and liquid swept into the base by the brushroll; and characterized in that a steam distributor is in fluid communication with the steam generator via the wand, the steam distributor being positioned to dispense steam onto the brushroll.
An electrical room housing electrical and electronic apparatus for operating and controlling electrical motors of an industrial equipment, the electrical room comprising a cooling device for cooling the electrical room, which cooling device is operated dependent on at least one temperature measurement, the cooling device comprising a first heat exchanger for cooling air in the electrical room, which first heat exchanger is arranged with a first set of channels through which is conducted a first flow of air (W 1) drawn from inside the electrical room, wherein the air (W 1) from inside the electrical room is circulated through the first heat exchanger of the cooling device and returned (C 1) to the electrical room in a closed loop, and wherein the air temperature in the electrical room is controlled dependent on a setpoint of between 24-40°C for at least one temperature measurement inside the electrical room, characterised in that the cooling device is arranged with at least one second heat exchanger positioned in the flow of air (W 1, C 1) from inside the electrical room, the at least one second heat exchanger being connected to at least one third heat exchanger arranged outside of the electrical room. a cooling device for cooling the electrical room, which cooling device is operated dependent on at least one temperature measurement, the cooling device comprising a first heat exchanger for cooling air in the electrical room, which first heat exchanger is arranged with a first set of channels through which is conducted a first flow of air (W 1) drawn from inside the electrical room, wherein the air (W 1) from inside the electrical room is circulated through the first heat exchanger of the cooling device and returned (C 1) to the electrical room in a closed loop, and wherein the air temperature in the electrical room is controlled dependent on a setpoint of between 24-40°C for at least one temperature measurement inside the electrical room, characterised in that the cooling device is arranged with at least one second heat exchanger positioned in the flow of air (W 1, C 1) from inside the electrical room, the at least one second heat exchanger being connected to at least one third heat exchanger arranged outside of the electrical room.
A method performed by operating a radio access point, providing a radio access network for a telecommunications network, comprising a plurality of antenna elements, the method comprising the steps of: determining a performance requirement for a network slice to which a User Equipment, UE, of the telecommunications network is allocated; selecting, in dependence upon said determined performance requirement, a spatial arrangement of a subset of the plurality of antenna elements; reserving the selected subset for use only by the network slice; communicating a network communication between the radio access point and the UE using only the subset of antenna elements; receiving, at the radio access point, a wireless signal from the UE; identifying the network slice to which the UE is allocated, thereby to determine the subset of antenna elements; and performing aperture synthesis of the wireless signal using each of the antenna elements of the subset by measuring amplitude and phase of the wireless signal by means of each antenna element of the subset. determining a performance requirement for a network slice to which a User Equipment, UE, of the telecommunications network is allocated; selecting, in dependence upon said determined performance requirement, a spatial arrangement of a subset of the plurality of antenna elements; reserving the selected subset for use only by the network slice; communicating a network communication between the radio access point and the UE using only the subset of antenna elements; receiving, at the radio access point, a wireless signal from the UE; identifying the network slice to which the UE is allocated, thereby to determine the subset of antenna elements; and performing aperture synthesis of the wireless signal using each of the antenna elements of the subset by measuring amplitude and phase of the wireless signal by means of each antenna element of the subset.
A processing circuitry - implemented method comprising the steps of: receiving implanted medical device data, wherein the medical device data was sensed by a first lead portion and a sensor over a period of time of at least one day; applying first noise detection criteria to the medical device data sensed by the first lead portion; counting the number of detected noise events sensed by the first lead portion over the time period based on the first noise detection criteria; applying second noise detection criteria to the medical device data sensed by the sensor; counting the number of detected noise events over the sensor over the time period based on the second noise detection criteria; calculating the mean number of detected noise events over the time period, wherein at least the number of detected noise events sensed by the first lead portion and the number of detected noise events sensed by the sensor are included in the mean calculation; and recording a determination of potential lead failure in the first lead if the number of detected noise events over the first lead over the time period is greater than the mean number of noise events by at least 5%. receiving implanted medical device data, wherein the medical device data was sensed by a first lead portion and a sensor over a period of time of at least one day; applying first noise detection criteria to the medical device data sensed by the first lead portion; counting the number of detected noise events sensed by the first lead portion over the time period based on the first noise detection criteria; applying second noise detection criteria to the medical device data sensed by the sensor; counting the number of detected noise events over the sensor over the time period based on the second noise detection criteria; calculating the mean number of detected noise events over the time period, wherein at least the number of detected noise events sensed by the first lead portion and the number of detected noise events sensed by the sensor are included in the mean calculation; and recording a determination of potential lead failure in the first lead if the number of detected noise events over the first lead over the time period is greater than the mean number of noise events by at least 5%.
An exhaust gas heat exchanger in which an exhaust gas is heat-exchanged with cooling fluid comprising: an exhaust gas passage through which an exhaust gas discharged from an internal combustion engine passes, and outside which the cooling fluid flows; and an offset type fin that is disposed in the exhaust gas passage and that has a rectangular corrugated cross-sectional shape as viewed in an exhaust gas flowing direaction, and a plurajity of side surface portions of the rectangular corrugated cross sectional shape are offset in the direction perpendicular to the flowing direction so as to form a plurality of segments, wherein projections, which project inwardly of the fin, are formed in the planar portion of the rectangular corrugated cross-sectional shape of the fin, and each projection of an upper-stream-side one of upper-stream-side and lower-stream-side segments adjacent to each other in the flowing direction is opposed to an upper stream end of the side surface portion of the lower-stream-side segment, the fins comprise first planar portions, which are in contact with the inner wall of the exhaust gas passage, and second planar portions, which divide the inside of the exhaust gas passage into a plurality of passages; and wherein the surface of the projections is inclined with respect to the flow of exhaust gas, so that the amount of the protrusion thereof from the planar portion increases toward the downstream side of the flow of exhaust gas, such that folded lines are inclined to the flow direction of exhaust gas. an exhaust gas passage through which an exhaust gas discharged from an internal combustion engine passes, and outside which the cooling fluid flows; and an offset type fin that is disposed in the exhaust gas passage and that has a rectangular corrugated cross-sectional shape as viewed in an exhaust gas flowing direaction, and a plurajity of side surface portions of the rectangular corrugated cross sectional shape are offset in the direction perpendicular to the flowing direction so as to form a plurality of segments, wherein projections, which project inwardly of the fin, are formed in the planar portion of the rectangular corrugated cross-sectional shape of the fin, and each projection of an upper-stream-side one of upper-stream-side and lower-stream-side segments adjacent to each other in the flowing direction is opposed to an upper stream end of the side surface portion of the lower-stream-side segment, the fins comprise first planar portions, which are in contact with the inner wall of the exhaust gas passage, and second planar portions, which divide the inside of the exhaust gas passage into a plurality of passages; and wherein the surface of the projections is inclined with respect to the flow of exhaust gas, so that the amount of the protrusion thereof from the planar portion increases toward the downstream side of the flow of exhaust gas, such that folded lines are inclined to the flow direction of exhaust gas.
A screening method for screening for infection control compositions that inhibit, antagonize, interfere, displace and/or disrupt the binding of a microbial spore to an inanimate and/or animate surface, the method comprising: a) providing; i) an isolated peptide, wherein the peptide is derived from a Clostridium spore surface protein; and ii) an infection control test compound suspected of having an interaction with the peptide; b) contacting the peptide with an infection control test compound; c) detecting the interaction of the peptide with the infection control test compound; and d) where an interaction is detected, selecting the infection control test compound for further testing to identify effective infection control compositions, wherein the peptide is selected from the group consisting of SEQ ID NO: 1, SEQ ID NO: 3, SEQ ID NO: 5, SEQ ID NO: 7, and SEQ ID NO: 15.
A solenoid-operated valve comprising a valve assembly and a solenoid assembly, the valve assembly comprising: a body with fluid ports (P,S,T) for the receipt and delivery of hydraulic control fluid, a valve element (37,38,39) disposed in a valve chamber, the valve element (37,38,39) being actuable between open and closed positions in order to control the flow of hydraulic control fluid between the fluid ports (P,S,T), the valve element being actuable by a solenoid assembly; the solenoid assembly comprising at least one coil for generating a magnetic field and an actuating member disposed in a solenoid chamber for displacement by the magnetic field, the actuating member being coupled to the valve element (37,38,39), wherein the solenoid chamber is sealed against ingress of hydraulic control fluid from the valve chamber and from the ingress of fluid from the environment surrounding the solenoid assembly, and a movable pressure balancing device provided between the solenoid chamber and the surrounding environment, the balancing device having a first surface exposed to the internal pressure within the solenoid chamber and a second surface for exposure to the external pressure of the surrounding environment, the device being movable so as to ensure the forces acting on the first and second surfaces are balanced, characterised in that the actuating member comprises a push rod carrying an armature member.
An electromagnetic clutch to be attached to a compressor, said electromagnetic clutch comprising: a rotor to be rotatably supported by a housing of the compressor; a pulley that receives a rotational force from a rotational force source via a belt and that is relatively unrotatably coupled to the rotor to rotate integrally with the rotor; a hub that is to be relatively unrotatably coupled to a drive shaft of the compressor and that rotates together with the drive shaft; an armature plate that is to be coupled to the hub so that it should face a side end surface of the rotor with a gap therebetween; and an excitation coil that is to be supported by the housing of the compressor, that is accommodated in an inside of the rotor, and that generates an electromagnetic attraction force between the armature plate and the rotor, wherein the rotor is distinct from the pulley, the pulley is attached to the rotor on a front side of the electromagnetic clutch, characterised in that the pulley includes a small-diameter pulley portion protruding axially toward the front side of the electromagnetic clutch with respect to the armature plate, and the small-diameter pulley portion is provided with a cover at an opening of the small-diameter pulley portion on the front side of the electromagnetic clutch. a rotor to be rotatably supported by a housing of the compressor; a pulley that receives a rotational force from a rotational force source via a belt and that is relatively unrotatably coupled to the rotor to rotate integrally with the rotor; a hub that is to be relatively unrotatably coupled to a drive shaft of the compressor and that rotates together with the drive shaft; an armature plate that is to be coupled to the hub so that it should face a side end surface of the rotor with a gap therebetween; and an excitation coil that is to be supported by the housing of the compressor, that is accommodated in an inside of the rotor, and that generates an electromagnetic attraction force between the armature plate and the rotor, wherein the rotor is distinct from the pulley, the pulley is attached to the rotor on a front side of the electromagnetic clutch, characterised in that the pulley includes a small-diameter pulley portion protruding axially toward the front side of the electromagnetic clutch with respect to the armature plate, and the small-diameter pulley portion is provided with a cover at an opening of the small-diameter pulley portion on the front side of the electromagnetic clutch.
A wear member for excavating equipment comprising a rearward-opening socket for receiving a base secured to the excavating equipment, and an opening for receiving a lock to releasably hold the wear member to the base, the socket having a longitudinal axis and including (i) a front end with a front wall transverse to the longitudinal axis to bear against a front wall of the base, and a top stabilizing surface and a bottom stabilizing surface to bear against front stabilizing surfaces on the base, and (ii) a rear end with a top wall, a bottom wall and side walls extending rearward from the front end; characterized by at least one of the top and bottom walls including a pair of rear stabilizing surfaces (110, 111 or 112, 113) inclined relative to each other in different transverse directions so as to laterally converge inward toward a central location along the respective top or bottom wall (100 or 101) to define an inward projection and bear against complementary surfaces in a recess in the base to resist both vertical and horizontal loads during excavating, said top stabilizing surface, said bottom stabilizing surface, and each said rear stabilizing surface axially extending substantially parallel to the longitudinal axis.
A method for operating a first machine of a manufacturing process section arranged to carry out a production cycle, said production cycle comprising a pressing part and a non-pressing part, which said first machine is operated in conjunction with at least one second machine and which said first machine carries out a process during the working part of the cycle on a workpiece which is loaded into and/or unloaded out of said first machine by said at least one second machine during the non-working part of each process cycle, characterised by adaptively controlling the speed of said first machine to decelerate said first machine at a point before the start point after which unloading is permitted dependent on a speed or position of said second machine and synchronising said first machine to said second machine by controlling the speed of said first machine and accelerating or decelerating it according to an estimated time for said second machine to reach the start point or end point of an unloading or loading stage of the process cycle.
Hotplate apparatus with a plurality of inductors (14, 14b) arranged below a cooking surface (12, 12b), with a pot recognition system (16, 16b) for detecting one or more cookware elements (18, 18b) placed on the cooking surface (12, 12b), with a control unit (20, 20b) for actuating the inductors (14, 14b) and with a display unit (22, 22b), wherein the control unit (20, 20b) is provided to output at least one characteristic variable of the inductors (14, 14b) covered by the cookware elements (18, 18b) in order to initiate a selection process, characterised in that the control unit (20, 20b) is provided to display the inductors (14, 14b) covered by the cookware elements (18, 18b) to an end user on the display unit (22, 22b) for selection, wherein the control unit (20, 20b) is provided to display all inductors (14, 14b) covered by the cookware elements (18, 18b) and recognised by the pot recognition system (16, 16b) for heating the cookware elements (18, 18b) to the end user on the display unit (22, 22b) and to wait for a selection of the necessary inductors (14, 14b) by the end user.
A sports ball comprising a core, said core comprising: a. a plurality of ribs; and b. a plurality of internal compartments, wherein the core consists of polyurethane foam and said internal compartments comprise a plurality of voids defined by at least one rib and an outer boundary of the core. a. a plurality of ribs; and b. a plurality of internal compartments,
A plasticizer composition comprising a1) one or more compounds of the general formula (I.a), in which A is methyl or ethyl, n is 1 or 2 and R 1 and R 2 are selected independently of each other from C 5 -C 7 -cycloalkyl, where the cycloalkyl moieties are unsubstituted or can be substituted by at least one C 1 -C 10 -alkyl moiety, b) one or more compounds of the general formula, in which R 3 and R 4 are selected independently of each other from branched and unbranched C 7 -C 12 -alkyl moieties. a1) one or more compounds of the general formula (I.a), in which A is methyl or ethyl, n is 1 or 2 and R 1 and R 2 are selected independently of each other from C 5 -C 7 -cycloalkyl, where the cycloalkyl moieties are unsubstituted or can be substituted by at least one C 1 -C 10 -alkyl moiety, A is methyl or ethyl, n is 1 or 2 and R 1 and R 2 are selected independently of each other from C 5 -C 7 -cycloalkyl, where the cycloalkyl moieties are unsubstituted or can be substituted by at least one C 1 -C 10 -alkyl moiety, b) one or more compounds of the general formula, in which R 3 and R 4 are selected independently of each other from branched and unbranched C 7 -C 12 -alkyl moieties.
Ferritic stainless steel having excellent corrosion and sheet forming properties, characterized in that the steel consists of in weight percentages 0.003 - 0.035 % carbon, 0.05 - 1.0 % silicon, 0.10 - 0.8 % manganese, 18 - 22 % chromium, 0.05 - 0.8 % nickel, 0.5 - 2.5 % molybdenum, 0.2 - 0.8 % copper, 0.003 - 0.05 % nitrogen, 0,05 - 1.0 % titanium, 0.05 - 1.0 % niobium, 0.03 - 0.5 % vanadium, 0.010 - 0.04 % aluminium, and the sum C+N less than 0.06 %, the remainder being iron and inevitable impurities, wherein the ratio (Ti+Nb)/(C+N) is higher or equal to 8, and less than 40, and the ratio Ti eq /C eq = (Ti + 0.515*Nb +0.940*V)/(C+0.858*N) is higher or equal to 6, and less than 40, and L eq = 5.8*Nb + 5*Ti*Si is higher or equal to 3.3, and the steel is produced using AOD (Argon-Oxygen-Decarburization) technology. Ti eq /C eq = (Ti + 0.515*Nb +0.940*V)/(C+0.858*N) is higher or equal to 6, and less than 40, and L eq = 5.8*Nb + 5*Ti*Si is higher or equal to 3.3, and the steel is produced using AOD (Argon-Oxygen-Decarburization) technology.