mhurhangee/patent-ind-claim-en huggingface dataset:
An electrically powered vehicle system comprising: a rectification stage , a DC/DC converter stage , a first link , a second link , a vehicle battery , a vehicle device and at least one further stage , said rectification stage being adapted to rectify an AC power input from an AC grid supply into a rectified AC output; said vehicle battery being adapted to receive power output from said DC/DC converter stage ; said first link being configured to provide a connection between the rectification stage and said DC/DC converter stage for feeding the rectified AC output from the rectification stage as a rectified AC input to the DC/DC converter stage ; said second link being configured to be connected to said first link and further configured to be connected to said vehicle device via said at least one further stage , said vehicle device being a heater, the electrical powered vehicle system being characterized in that it further comprises a capacitor bank , said capacitor bank being configured to be connected to said first link ; said capacitor bank being further configured to be connected to said vehicle device or said at least one further stage via a direct connection ; said system being adapted so as to supply power from said capacitor bank to said vehicle device . a rectification stage , a DC/DC converter stage , a first link , a second link , a vehicle battery , a vehicle device and at least one further stage , said rectification stage being adapted to rectify an AC power input from an AC grid supply into a rectified AC output; said vehicle battery being adapted to receive power output from said DC/DC converter stage ; said first link being configured to provide a connection between the rectification stage and said DC/DC converter stage for feeding the rectified AC output from the rectification stage as a rectified AC input to the DC/DC converter stage ; said second link being configured to be connected to said first link and further configured to be connected to said vehicle device via said at least one further stage , said vehicle device being a heater, the electrical powered vehicle system being characterized in that it further comprises a capacitor bank , said capacitor bank being configured to be connected to said first link ; said capacitor bank being further configured to be connected to said vehicle device or said at least one further stage via a direct connection ; said system being adapted so as to supply power from said capacitor bank to said vehicle device .
Method for identifying a receiver of a hearing system , said hearing system comprising a hearing aid and the receiver , wherein the receiver belongs to one of a plurality of receiver types, wherein the receiver comprises two signal contacts , wherein the hearing aid comprises two poles that can be connected to the signal contacts of the receiver , wherein the receiver can be connected to the poles of the hearing aid of the hearing system by means of the signal contacts in a manner protected against reverse polarity, wherein an electrical input signal is supplied to the receiver for sound output, wherein the input signal is a primary signal and a secondary signal is generated on the basis of the sound output, said secondary signal being dependent on the input signal , wherein the secondary signal is captured by a sensor , which generates an electrical sensor signal in dependence on the secondary signal , wherein a phase measurement is carried out by determining a phase difference between the input signal and the sensor signal , wherein the receiver is identified by assigning the receiver to one of the plurality of receiver types based on the phase difference, wherein a first receiver type and a second receiver type of the plurality of receiver types differ from each other in such that they are designed to be protected against reverse polarity in the opposite direction to each other, so that the two phase differences generated by a receiver of the first receiver type and by a receiver of the second receiver type differ by 180°.
A lock control system comprising a first actuator moving between a first stable state (ES1) in which a lock system is implemented, the first stable state (ES1) being a state which does not require of electrical or hydraulic energy to last over time, and a first disengaged position (ED) in which the lock system is deactivated, and a second actuator moving between a rest position (PR) in which the second actuator does not interact with the first actuator , and an active position (PA) in which the second actuator is constrained against the first actuator , the first actuator comprising a first socket for a head of the second actuator which when this second actuator is in the active position (PA) and its implementation is maintained blocks the first actuator in the first disengaged position (ED), the first actuator comprising a rod between a head for the actuation of the system of lock and a cylinder for moving the rod and the head , characterized in that the first actuator further comprises a second socket , shaped, together with the head of the second actuator , to interact with the latter so as to block the first actuator in a second stable state (ES2) in which the lock system is deactivated, the second state stable (ES2) being a state which does not require electrical or hydraulic energy to persist over time, the first and second sockets being in the form of two notches provided at two distinct heights of the rod .
A bundle gripping tool comprising: a support ring concentric to a bundle axis and having a first open sector accessing a central aperture for the insertion of a bundled object in said central aperture ; a closure ring mounted on the support ring, the closure ring concentric with and rotatable about the bundle axis, the closure ring having a second open sector wherein rotation of the closure ring to an open position at least partially aligns the second open sector with the first open sector exposing the central aperture and rotation to a closed position, misaligning the second open sector from the first open sector, covers the first open sector gating the central aperture; a plurality of snare cables engaged between a first set of attachment points on the support ring and a second set of attachment points on the closure ring, said first set of attachment points and second set of attachment points relatively positioned whereby each of said plurality of snare cables partially encircles the bundle axis in the closed position and exposes the bundle axis in the open position; and, an operating mechanism configured to rotate the closure ring. a support ring concentric to a bundle axis and having a first open sector accessing a central aperture for the insertion of a bundled object in said central aperture ; a closure ring mounted on the support ring, the closure ring concentric with and rotatable about the bundle axis, the closure ring having a second open sector wherein rotation of the closure ring to an open position at least partially aligns the second open sector with the first open sector exposing the central aperture and rotation to a closed position, misaligning the second open sector from the first open sector, covers the first open sector gating the central aperture; a plurality of snare cables engaged between a first set of attachment points on the support ring and a second set of attachment points on the closure ring, said first set of attachment points and second set of attachment points relatively positioned whereby each of said plurality of snare cables partially encircles the bundle axis in the closed position and exposes the bundle axis in the open position; and, an operating mechanism configured to rotate the closure ring.
Method for controlling vehicle speed in a vehicle equipped with brake cruise control when the vehicle is travelling downhill, which method comprises the steps of; - driving a vehicle downhill with the brake set speed set to a first brake set speed (v B1 ); - detecting a current vehicle speed; - automatically applying a brake torque using at least an auxiliary brake to maintain the first brake set speed (v B1 ); - detecting a manual application of a vehicle service brake, in order to decrease vehicle speed; and if a control unit detects that the driver is applying the service brake , then the control unit is automatically arranged to perform the steps of: - setting the brake set speed to a second brake set speed (v B2 ) that is lower than the first brake set speed (v B1 ); and - applying a brake torque using at least the auxiliary brake if a detected current vehicle speed exceeds the second brake set speed, characterized by setting the second brake set speed (v B2 ) at a level where the second brake set speed can be maintained by the auxiliary brake . - driving a vehicle downhill with the brake set speed set to a first brake set speed (v B1 ); - detecting a current vehicle speed; - automatically applying a brake torque using at least an auxiliary brake to maintain the first brake set speed (v B1 ); - detecting a manual application of a vehicle service brake, in order to decrease vehicle speed; and - setting the brake set speed to a second brake set speed (v B2 ) that is lower than the first brake set speed (v B1 ); and - applying a brake torque using at least the auxiliary brake if a detected current vehicle speed exceeds the second brake set speed,
Electrical machine comprising a stator and a rotor , whereby either the stator or the rotor is provided with at least one permanent magnet , wherein a shielding means shielding the at least one permanent magnet from interactions with external magnetic fields is adjacently disposed to the permanent magnet on the stator or rotor supporting the at least one permanent magnet , wherein at least one shielding means is disposed at two lateral surfaces of the at least one permanent magnet and overlaps the circle-segment- or half sinus wave shaped permanent magnet on the side directly opposed to the air-gap , wherein there is a form-fit between the surface of the shielding means being directly attached to the permanent magnet and the surface of the permanent magnet being in contact with the shielding means at each of two opposite lateral surfaces of the permanent magnet , wherein the respective portion of the at least one permanent magnet being uncovered and directly opposed to the air-gap is not covered by the shielding means , wherein the shielding means is built of an electrically conductive and magnetically non-conductive material.
(6a R ,9a S )-5,6a,7,8,9,9a-hexahydro-5-methyl-3-(phenylamino)-2-((4-(6-fluoropyridin-2-yl)phenyl)methyl)-cyclopent imidazo[1,2- a ]pyrazolo[4,3- e ]pyrimidin-4(2 H )-one free base (Compound A) solvate as shown by the following chemical formula: in crystalline form, wherein: the crystalline form is in mono ethanol or mono isopropanol solvate form; and wherein said crystalline form exhibits an X-ray powder diffraction pattern measured in a diffractometer using copper anode, at wavelength alphal of 1.5406 Å and wavelength alpha2 of 1.5444 Å, selected from the following: a) an X-ray powder diffraction pattern comprising at least five peaks having d-spacing values selected from the group consisting of 14.34, 11.65, 10.83, 7.91, 7.16, 6.89, 6.59, 5.82, 5.37, 5.03, 4.87, 4.64, 4.48, 4.23, 4.06, 3.93, 3.85, 3.75, 3.59, 3.45, 3.35, 3.21, 3.14, 3.01, 2.89, 2.81, 2.74, 2.68, 2.61, 2.47, 2.42, 2.34 and 2.28Å; c) an X-ray powder diffraction pattern comprising at least five peaks having d-spacing values selected from the group consisting of 14.67, 11.53, 10.80, 7.95, 7.25, 6.93, 6.59, 5.95, 5.76, 5.41, 4.86, 4.68, 4.47, 4.33, 4.24, 4.06, 3.95, 3.82, 3.61, 3.44, 3.36, 3.25, 3.19, 3.02, 2.96, 2.87, 2.77, 2.71, 2.63, 2.58, 2.53, 2.48, 2.38, 2.35 and 2.32Å; a) an X-ray powder diffraction pattern comprising at least five peaks having d-spacing values selected from the group consisting of 14.34, 11.65, 10.83, 7.91, 7.16, 6.89, 6.59, 5.82, 5.37, 5.03, 4.87, 4.64, 4.48, 4.23, 4.06, 3.93, 3.85, 3.75, 3.59, 3.45, 3.35, 3.21, 3.14, 3.01, 2.89, 2.81, 2.74, 2.68, 2.61, 2.47, 2.42, 2.34 and 2.28Å; c) an X-ray powder diffraction pattern comprising at least five peaks having d-spacing values selected from the group consisting of 14.67, 11.53, 10.80, 7.95, 7.25, 6.93, 6.59, 5.95, 5.76, 5.41, 4.86, 4.68, 4.47, 4.33, 4.24, 4.06, 3.95, 3.82, 3.61, 3.44, 3.36, 3.25, 3.19, 3.02, 2.96, 2.87, 2.77, 2.71, 2.63, 2.58, 2.53, 2.48, 2.38, 2.35 and 2.32Å;
Optical sensor for detecting objects in a detection region, having at least one sensor component, which has a lens, in a housing and having at least one evaluation unit for generating an object detection signal as a function of sensor signals from said at least one sensor component, a plurality of display elements which surround the lens being provided in a wall of the housing, which complement each other to form a symbol display unit , characterised in that the display elements are provided to surround two lenses, wherein these display elements form a seven-segment display, or in that the symbol display unit forms a bar graph display, wherein the symbol display unit can be switched between a bar graph display and a symbol display.
Method for automatically testing the functionality of a switching member comprising at least one electrically switchable switching element , wherein a switching state of the or each switching element is influenced via a control input of the switching element and by means of a control signal generated by a control unit and output to the control input , wherein an activation signal is output to the control unit and changes the control signal , wherein the activation signal induces a test signal as the change to the control signal and induces a disconnection pulse as the test signal , wherein in response to the disconnection pulse , the voltage drop across the switching element is recorded, wherein a comparison is carried out between an indicator encoding the recorded voltage drop across the switching element and a reference encoding an expected response to the disconnection pulse , and wherein depending on the result of the comparison, a status signal is generated which encodes the functionality of the switching member , characterized in that a SiC power semiconductor or a GaN power semiconductor acts as the switching element , wherein the SiC power semiconductor or GaN power semiconductor is switched off by means of the disconnection pulse while the former conducts current in the reverse direction. wherein a switching state of the or each switching element is influenced via a control input of the switching element and by means of a control signal generated by a control unit and output to the control input , wherein an activation signal is output to the control unit and changes the control signal , wherein the activation signal induces a test signal as the change to the control signal and induces a disconnection pulse as the test signal , wherein in response to the disconnection pulse , the voltage drop across the switching element is recorded, wherein a comparison is carried out between an indicator encoding the recorded voltage drop across the switching element and a reference encoding an expected response to the disconnection pulse , and wherein depending on the result of the comparison, a status signal is generated which encodes the functionality of the switching member , characterized in that a SiC power semiconductor or a GaN power semiconductor acts as the switching element , wherein the SiC power semiconductor or GaN power semiconductor is switched off by means of the disconnection pulse while the former conducts current in the reverse direction.
Filtration system for the filtration of oil, in particular for marine units such as marine engines, in an oil circuit having a main pump (22; 122; 222), comprising at least one backflushable main filter (4; 104; 204), which is arranged in a feed line of the oil circuit and has a filter housing with an oil inlet, a filtrate outlet and a backflush outlet as well as a backflush device, comprising a filtrate line (9; 109; 209) for filtered oil filtrate between the filtrate outlet and the marine unit (1; 101; 201), comprising a treatment branch for backflush fluid, which is connected to the backflush outlet and has at least one treatment filter (31; 131; 231) with a filter housing , a fluid inlet and a fluid outlet , comprising a plurality of switchable switching valves and comprising at least one pump (25; 124) in the treatment branch between the backflush outlet and the fluid inlet, characterized in that the fluid outlet of the treatment filter (31; 131; 231) is connected to the filtrate line (9; 109; 209), and a switchable multi-way valve (40; 140; 240) having a valve inlet as well as at least a first valve outlet and a second valve outlet (43; 143; 243) is arranged in the treatment branch (30; 130; 230) between the at least one pump (25; 125) in the treatment branch and the fluid inlet of the treatment filter, wherein the first valve outlet of the multi-way valve is connected to the fluid inlet of the treatment filter , and the second valve outlet (43; 143; 243) is connected to the feed line (3; 103; 203) upstream of the main filter , upstream of the main pump (22; 122) and downstream of a suitable shut-off or backflow blocking member (24; 199).
A conveying facility with roller-guided conveying elements , comprising in each case a basis body , several rollers (3a-3d) which are rotatably mounted on the basis body at two sides which lie opposed to one another, wherein the basis body is arranged between the rollers (3a-3d) attached at both sides, and a holding member which is arranged on the basis body and is for holding an object to be conveyed, as well as with a longitudinal guidance body forming a guide channel , along which guide channel the conveying elements are rollingly movable, wherein the conveying elements with the rollers (3a-3d) are designed in a manner such that a section of the conveying elements , with in each case at least one roller (3a-3d) of the two sides of the basis body is rollingly movable in the guide channel of the longitudinal guidance body , characterised in that the rollers (3a-3d) in each case are two rollers (3a-3) which are arranged oppositely and equally offset in a crosswise manner on the two sides on the basis body . characterised in that the rollers (3a-3d) in each case are two rollers (3a-3) which are arranged oppositely and equally offset in a crosswise manner on the two sides on the basis body .
Method for producing a hole in an object, comprising the following steps: generating a beam for removing material such that a bore base is placed into a focal position of the beam; removing material by impingement of the beam on the bore base; re-placing the bore base into a focal position of the beam to compensate for an increase in the depth of the hole due to the removal of material; the method is characterized by : changing a beam characteristic of the beam when the bore base is re-placed into a focal position, the changing of the beam characteristic comprising modulating a beam caustic of the beam. generating a beam for removing material such that a bore base is placed into a focal position of the beam; removing material by impingement of the beam on the bore base; re-placing the bore base into a focal position of the beam to compensate for an increase in the depth of the hole due to the removal of material; the method is characterized by : changing a beam characteristic of the beam when the bore base is re-placed into a focal position, the changing of the beam characteristic comprising modulating a beam caustic of the beam.
Floor panel of the type which comprises at least a substrate and a top layer provided on this substrate , wherein said top layer substantially consists of synthetic material; wherein the top layer comprises a motif formed by a printed synthetic material film and a transparent or translucent wear layer based on synthetic material and situated above the motif ; wherein the top layer and the substrate are welded to each other; wherein the floor panel comprises at least at two opposite edges (5-6) coupling means , with which two of such floor panels can be locked to each other in horizontal direction (H1) as well as in vertical direction (V1); wherein said coupling means substantially are made as a tongue-in-groove coupling, which is provided with locking parts (18-19); and wherein said tongue-in-groove coupling realizes said locking in vertical direction (V1), whereas said locking parts (18-19) are provided for realizing said locking in horizontal direction (H1); characterized in that said substrate substantially consists of a foamed synthetic material board, which has an average density of more than 300 kilograms per cubic meter; that said foamed synthetic material board relates to a foamed PVC board; that the foamed synthetic material board is provided with filler materials, such as chalk; that said coupling means substantially are realized in the foamed synthetic material board; and that at least one pair of horizontally active locking surfaces (20-21) of the coupling means is realized in the substrate .
Installation arrangement for a floor structure , in particular a concrete floor structure , comprising - a profile body formed for mounting on the floor structure and comprising a groove-shaped, elongate mounting recess , which is open upwards in a mounted position and into which a preferably plate-shaped securing body can be inserted, - a multi-part lining comprising an upper attachment profile assigned to the profile body , comprising a lower attachment profile formed for mounting on the floor structure , and comprising a shutter body which, in the mounted position, covers the floor structure and/or the profile body and/or the upper attachment profile and/or the lower attachment profile at least in portions, the shutter body of the lining being fastened on the upper attachment profile of the lining and/or on the profile body in the mounted position; characterised in that in the mounted position the shutter body of the lining is additionally inserted into an upwardly open support groove of the lower attachment profile . - a profile body formed for mounting on the floor structure and comprising a groove-shaped, elongate mounting recess , which is open upwards in a mounted position and into which a preferably plate-shaped securing body can be inserted, - a multi-part lining comprising an upper attachment profile assigned to the profile body , comprising a lower attachment profile formed for mounting on the floor structure , and comprising a shutter body which, in the mounted position, covers the floor structure and/or the profile body and/or the upper attachment profile and/or the lower attachment profile at least in portions,
A method of operating a continuously rotating, non-symmetric preform feed, stretch-blow-moulding machine in which injection-moulded preforms with integral handles are transferred from a first rotating transfer system to a preheating stage ; wherein the transfer of a preform from a gripper of the first transfer system to a preform supporting mandrel of the preheating stage is achieved in one fluid motion, that is, while the first rotating transfer system and a preheating transport system are in continuous contrarotation as a vertical axis of the preform is brought into alignment with a vertical axis of the preform supporting mandrel and the handle of the preform is protected from heat by a heat shield provided on the mandrel , the transfer being made while accommodating each of the rotations of a loop rail system of the preheating stage , the mandrel and the transfer system as well as movements of the gripper and wherein banks of heating elements are positioned along straight sections of the loop rail system and wherein graded hot air is drawn across the path of the preforms by extractor fans and wherein, to prevent excessive heat build up of a cylindrical collar of the mandrel and neck of the preform in the collar , a cooling stream of air is directed at the collar .