mhurhangee/patent-ind-claim-en huggingface dataset:
A battery module , characterized by comprising: a plurality of battery units arranged in a horizontal direction, wherein each battery unit comprises a plurality of batteries stacked in a vertical direction, the plurality of batteries comprise a first battery and a second battery stacked in a vertical direction, the first battery and the second battery each comprise a first electrode terminal , a second electrode terminal , and an explosion-proof piece located between the first electrode terminal and the second electrode terminal ; and a busbar assembly , configured to electrically connect the plurality of battery units , wherein the busbar assembly comprises a first busbar connected to the first electrode terminal of the first battery and the second electrode terminal of the second battery , wherein in a first direction perpendicular to the vertical direction and the horizontal direction, the first busbar comprises a first weak zone that at least partially overlaps with the explosion-proof piece of the first battery , wherein the first weak zone is configured to fracture when the explosion-proof piece of the first battery is burst, to cause an open circuit between the first battery and the second battery . a plurality of battery units arranged in a horizontal direction, wherein each battery unit comprises a plurality of batteries stacked in a vertical direction, the plurality of batteries comprise a first battery and a second battery stacked in a vertical direction, the first battery and the second battery each comprise a first electrode terminal , a second electrode terminal , and an explosion-proof piece located between the first electrode terminal and the second electrode terminal ; and a busbar assembly , configured to electrically connect the plurality of battery units , wherein the busbar assembly comprises a first busbar connected to the first electrode terminal of the first battery and the second electrode terminal of the second battery , wherein in a first direction perpendicular to the vertical direction and the horizontal direction, the first busbar comprises a first weak zone that at least partially overlaps with the explosion-proof piece of the first battery , wherein the first weak zone is configured to fracture when the explosion-proof piece of the first battery is burst, to cause an open circuit between the first battery and the second battery .
Hydrostatic drive , consisting at least of a variable displacement pump , one or more hydraulic motors, a feed pump , an adjustable feed pressure limiting valve , an adjusting unit , and a drive controller which actuates the adjusting unit, characterized in that the adjusting unit is supplied with hydraulic energy by way of an electrohydraulic supply unit , the supply unit consisting of an electric motor and an auxiliary pump which is coupled to it, and the outlet of the auxiliary pump being connected to the adjusting unit directly or via a check valve .
Roof structure, which comprises - load bearing roof beams, the longitudinal direction of which beams defines the width direction of the roof, - a first and a second roof boards , which boards comprise a planar outer surface , a planar inner surface and a core layer manufactured from a thermal insulation material and located between the outer and inner surfaces , the compression strength of which core layer is at least 10 kPa and the core layer is made of extruded polystyrene (XPS), expanded polystyrene (EPS), polyurethane (PIR/PUR) or phenolic foam, and the inner surface of the roof boards comprises an interior lining layer, and - a first fastening profile and a second fastening profile , whereby the first roof board comprises said first fastening profile and the second roof board comprises said second fastening profile , said first and second fastening profiles having a shape, with which the fastening profiles lock to each other in the joint between the two roof boards when arranged against each other, characterized in that the interior lining layer comprises concrete, mortar or similar casting compound which comprises a binding agent and an inorganic material, the first and second fastening profiles are U-shaped and each have a spike, said fastening profiles being fastened to the roof boards so that the spikes of the U-shaped profiles penetrate inside the thermal insulation material of the core layer, which fastening profiles have a longitudinal direction substantially perpendicular to the longitudinal load bearing roof beams, and which fastening profiles are continuous along the distance between at least two adjacent load bearing roof beams, and in the mounted state of the roof structure the fastening profiles are located inside the thermal insulation material of the roof boards. - load bearing roof beams, the longitudinal direction of which beams defines the width direction of the roof, - a first and a second roof boards , which boards comprise a planar outer surface , a planar inner surface and a core layer manufactured from a thermal insulation material and located between the outer and inner surfaces , the compression strength of which core layer is at least 10 kPa and the core layer is made of extruded polystyrene (XPS), expanded polystyrene (EPS), polyurethane (PIR/PUR) or phenolic foam, and the inner surface of the roof boards comprises an interior lining layer, and - a first fastening profile and a second fastening profile , whereby the first roof board comprises said first fastening profile and the second roof board comprises said second fastening profile , said first and second fastening profiles having a shape, with which the fastening profiles lock to each other in the joint between the two roof boards when arranged against each other,
Dye mixture comprising one or more dye(s) of formula (I) and one or more dye(s) of formula (II) and optionally one or more dye(s) of formula (III) and / or one or more dye(s) of formula (IV) wherein independently from each other R 1 is hydrogen, (C 1 -C 4 )-alkyl or (C 1 -C 4 )-alkoxy, R 2 is (C 1 -C 4 )-alkyl, R 3 and R 4 is (C 2 -C 8 )-alkyl, R 5 is phenyl or methyl, R 6 is (C 4 -C 10 )-alkyl, R 7 is methyl, ethyl or phenyl, R 8 is hydrogen, methyl or -CO-R 2 , X is NO 2 or CN, Y is NO 2 or CN, Z is halogen, n is 0, 1 or 2 and m is 1 or 2. and one or more dye(s) of formula (II) and optionally one or more dye(s) of formula (III) and / or one or more dye(s) of formula (IV) wherein independently from each other R 1 is hydrogen, (C 1 -C 4 )-alkyl or (C 1 -C 4 )-alkoxy, R 2 is (C 1 -C 4 )-alkyl, R 3 and R 4 is (C 2 -C 8 )-alkyl, R 5 is phenyl or methyl, R 6 is (C 4 -C 10 )-alkyl, R 7 is methyl, ethyl or phenyl, R 8 is hydrogen, methyl or -CO-R 2 , X is NO 2 or CN, Y is NO 2 or CN, Z is halogen, n is 0, 1 or 2 and m is 1 or 2. R 1 is hydrogen, (C 1 -C 4 )-alkyl or (C 1 -C 4 )-alkoxy, R 2 is (C 1 -C 4 )-alkyl, R 3 and R 4 is (C 2 -C 8 )-alkyl, R 5 is phenyl or methyl, R 6 is (C 4 -C 10 )-alkyl, R 7 is methyl, ethyl or phenyl, R 8 is hydrogen, methyl or -CO-R 2 , X is NO 2 or CN, Y is NO 2 or CN, Z is halogen, n is 0, 1 or 2 and m is 1 or 2.
A method of retreading a tire , the method comprising: interposing a moisture-curing adhesive between an inner surface of a circumferential tread and an outer surface of a tire casing ; applying the circumferential tread to the tire casing so the inner surface contacts the outer surface and a bondline edge forms circumferentially about the tire casing proximate to a shoulder of the tire casing ; coupling a moisture reservoir to the circumferential tread proximate to the bondline edge; wetting the moisture reservoir such that, responsive to the wetting, moisture is released from the moisture reservoir and permeates the bondline edge; enclosing the circumferential tread , the tire casing , and the moisture reservoir within an envelope , the envelope being positioned so as to extend within grooves of a tread pattern on an outer surface of the circumferential tread ; and removing air from the envelope to apply a pressure to the circumferential tread in a direction generally toward the tire casing , wherein the envelope is positioned within the grooves to reduce moisture circulation between the envelope and the circumferential tread . interposing a moisture-curing adhesive between an inner surface of a circumferential tread and an outer surface of a tire casing ; applying the circumferential tread to the tire casing so the inner surface contacts the outer surface and a bondline edge forms circumferentially about the tire casing proximate to a shoulder of the tire casing ; coupling a moisture reservoir to the circumferential tread proximate to the bondline edge; wetting the moisture reservoir such that, responsive to the wetting, moisture is released from the moisture reservoir and permeates the bondline edge; enclosing the circumferential tread , the tire casing , and the moisture reservoir within an envelope , the envelope being positioned so as to extend within grooves of a tread pattern on an outer surface of the circumferential tread ; and removing air from the envelope to apply a pressure to the circumferential tread in a direction generally toward the tire casing , wherein the envelope is positioned within the grooves to reduce moisture circulation between the envelope and the circumferential tread .
A method for calibrating a pressure sensor arranged on a rotor blade of a wind turbine plant , which rotor blade is secured to a rotor of the wind turbine plant, and wherein the calibration method comprises the following process steps - ascertaining measured values of the pressure sensor in at least two rotation positions of the rotor, in which the pressure sensor is in different heights; - comparing a pressure (pN) ascertained at hub height with a reference pressure (pref); - if a disparity in the ascertained pressure at hub height (pN) from the reference pressure (pref) is greater than a first prescribed tolerance range, shifting a characteristic curve (K) of the pressure sensor until the ascertained pressure at hub height is concordant with the reference pressure (pref) within the prescribed tolerance range; - determining the difference (A') in the measured values of the pressure sensor in the at least two rotation positions of the rotor; - if a disparity in the difference (A') in the determined measured values of the pressure sensor from an original difference (A) is greater than a second prescribed tolerance range, correcting the characteristic curve such that the determined difference (A') is again concordant with the original difference (A) within the prescribed tolerance range. - ascertaining measured values of the pressure sensor in at least two rotation positions of the rotor, in which the pressure sensor is in different heights; - comparing a pressure (pN) ascertained at hub height with a reference pressure (pref); - if a disparity in the ascertained pressure at hub height (pN) from the reference pressure (pref) is greater than a first prescribed tolerance range, shifting a characteristic curve (K) of the pressure sensor until the ascertained pressure at hub height is concordant with the reference pressure (pref) within the prescribed tolerance range; - determining the difference (A') in the measured values of the pressure sensor in the at least two rotation positions of the rotor; - if a disparity in the difference (A') in the determined measured values of the pressure sensor from an original difference (A) is greater than a second prescribed tolerance range, correcting the characteristic curve such that the determined difference (A') is again concordant with the original difference (A) within the prescribed tolerance range.
A device for perforating a non-woven fabric by means of hydrodynamic needling, comprising - a first carrier element having a first carrier surface , wherein the first carrier surface has first elevations and first perforations as drainage openings, and wherein the non-woven fabric for processing can be placed on the first carrier surface , - at least one first nozzle bar comprising openings, wherein fibers of the non-woven fabric arranged on the first carrier surface which are arranged on the first elevations of the first carrier surface can be washed down from the elevations by means of liquid emerging under high pressure from the openings of the first nozzle bar , such that perforations are created in the non-woven fabric , characterized in that - a second carrier element is provided, comprising a second carrier surface having second elevations and second perforations (4', 4") as drainage openings, - wherein, on the one hand, the elevations of the second carrier element have such a distance from each other and, on the other hand, the non-woven fabric provided with the perforations can be placed on the second carrier element in such a manner that the elevations of the second carrier element protrude into the perforations of the non-woven fabric arranged on the second carrier element , - wherein at least one second nozzle bar is provided and wherein the non-woven fabric can be subjected to a liquid emerging under high pressure from the openings of the second nozzle bar . - a first carrier element having a first carrier surface , wherein the first carrier surface has first elevations and first perforations as drainage openings, and wherein the non-woven fabric for processing can be placed on the first carrier surface , - at least one first nozzle bar comprising openings, wherein fibers of the non-woven fabric arranged on the first carrier surface which are arranged on the first elevations of the first carrier surface can be washed down from the elevations by means of liquid emerging under high pressure from the openings of the first nozzle bar , such that perforations are created in the non-woven fabric , characterized in that - a second carrier element is provided, comprising a second carrier surface having second elevations and second perforations (4', 4") as drainage openings, - wherein, on the one hand, the elevations of the second carrier element have such a distance from each other and, on the other hand, the non-woven fabric provided with the perforations can be placed on the second carrier element in such a manner that the elevations of the second carrier element protrude into the perforations of the non-woven fabric arranged on the second carrier element , - wherein at least one second nozzle bar is provided and wherein the non-woven fabric can be subjected to a liquid emerging under high pressure from the openings of the second nozzle bar .
A saddle-type vehicle comprising an airbag device that includes: an inflator ; an airbag configured to expand by gas discharged from the inflator ; and a retainer accommodating the airbag , wherein the retainer is disposed behind a head pipe , and wherein the retainer is coupled to a first extending portion extending backward from a steering shaft turnably supported by the head pipe and a second extending portion extending backward from the head pipe or the steering shaft , and the retainer moves to left or right in response to steering of a handle , the first extending portion has one end secured to the steering shaft and the other end coupled to the retainer in a swingable manner, characterised in that the second extending portion includes a link member that has one end coupled to a side of the head pipe in a swingable manner and the other end coupled to the retainer in a swingable manner. wherein the retainer is disposed behind a head pipe , and wherein the retainer is coupled to a first extending portion extending backward from a steering shaft turnably supported by the head pipe and a second extending portion extending backward from the head pipe or the steering shaft , and the retainer moves to left or right in response to steering of a handle , the first extending portion has one end secured to the steering shaft and the other end coupled to the retainer in a swingable manner, characterised in that the second extending portion includes a link member that has one end coupled to a side of the head pipe in a swingable manner and the other end coupled to the retainer in a swingable manner.
A drawer having a drawer side wall formed by a hollow-profile member, a drawer wall made from a wood material, and a fitting portion fixed to one of the two end faces of the drawer wall , the drawer wall being connected to the drawer side wall by the fitting portion , characterized in that the drawer side wall has a recess for receiving the fitting portion , wherein the drawer wall made from the wood material, with that end face having the fitting portion , projects into the recess of the drawer side wall formed by the hollow-profile member.
A multiview 3D wrist watch (100;105;200;330;400;440) comprising: clock circuitry to determine a time; a plurality of light sources to generate a plurality of input planar lightbeams ; a directional backplane having a plurality of directional pixels (215a-215d) to scatter the plurality of input planar lightbeams into a plurality of directional lightbeams (220a-220d), wherein each directional pixel in the plurality of directional pixels comprises patterned gratings with a plurality of parallel grooves , each directional lightbeam having a direction and angular spread controlled by characteristics of a directional pixel in the plurality of directional pixels, wherein the characteristics of a directional pixel comprise a grating length, a grating width, a grating orientation, a grating pitch, and a duty cycle and wherein the directional lightbeams represent multiple image views; and a shutter layer to receive the time from the clock circuitry and modulate the plurality of directional lightbeams to generate a 3D time view . clock circuitry to determine a time; a plurality of light sources to generate a plurality of input planar lightbeams ; a directional backplane having a plurality of directional pixels (215a-215d) to scatter the plurality of input planar lightbeams into a plurality of directional lightbeams (220a-220d), wherein each directional pixel in the plurality of directional pixels comprises patterned gratings with a plurality of parallel grooves , each directional lightbeam having a direction and angular spread controlled by characteristics of a directional pixel in the plurality of directional pixels, wherein the characteristics of a directional pixel comprise a grating length, a grating width, a grating orientation, a grating pitch, and a duty cycle and wherein the directional lightbeams represent multiple image views; and a shutter layer to receive the time from the clock circuitry and modulate the plurality of directional lightbeams to generate a 3D time view .
A light emitting diode, LED, apparatus configured for driving a plurality of LED lamps (Lamp 1, Lamp 2) coupled in parallel, characterized in that it comprises: at least one LED driver circuit that is adapted to provide a LED driving current for the plurality of LED lamps (Lamp 1, Lamp 2), the LED driver circuit comprising a current setting resistance circuit for setting a maximum value of the LED driving current; and a detection circuit that is adapted to detect presence or absence of each of the plurality of LED lamps (Lamp 1, Lamp 2) by measurement of a respective LED current flowing through each of the LED lamps (Lamp 1, Lamp 2), wherein, the detection circuit is configured to adjust the current setting resistance circuit based on the detection of presence or absence. at least one LED driver circuit that is adapted to provide a LED driving current for the plurality of LED lamps (Lamp 1, Lamp 2), the LED driver circuit comprising a current setting resistance circuit for setting a maximum value of the LED driving current; and a detection circuit that is adapted to detect presence or absence of each of the plurality of LED lamps (Lamp 1, Lamp 2) by measurement of a respective LED current flowing through each of the LED lamps (Lamp 1, Lamp 2), wherein, the detection circuit is configured to adjust the current setting resistance circuit based on the detection of presence or absence.
A stored electric power discharging circuit for an inverter device, characterized by : a group of series resistors configured to be connected in parallel to a plurality of main circuit capacitors (C1, C2) in a normal operation; a voltage stabilization circuit configured to stabilize interterminal voltages of the respective main circuit capacitors (C1, C2) according to a divided voltage of the group of series resistors during the normal operation; and a control switch having a control input and configured to cut the direct connection between the group of series resistors at a time of power-off, thereby breaking a voltage stability state of the main circuit capacitors (C1, C2) by the voltage stabilization circuit . a group of series resistors configured to be connected in parallel to a plurality of main circuit capacitors (C1, C2) in a normal operation; a voltage stabilization circuit configured to stabilize interterminal voltages of the respective main circuit capacitors (C1, C2) according to a divided voltage of the group of series resistors during the normal operation; and a control switch having a control input and configured to cut the direct connection between the group of series resistors at a time of power-off, thereby breaking a voltage stability state of the main circuit capacitors (C1, C2) by the voltage stabilization circuit .