mhurhangee/patent-ind-claim-en huggingface dataset:
Hinge comprising a first hinge element which is provided for fixing to a stationary structure and/or to a stationary wall element , and a second hinge element which is provided for fixing to a movable wall element , a connecting portion for forming a common axis of rotation being provided on each of the hinge elements , the hinge elements being pivotable, relative to one another, about the common axis of rotation from a closed position (S) in two directions, a recess being provided on one hinge element to receive an end portion of a wall element which can be arranged on the other hinge element , characterized in that at least one limiting element is provided on an outer surface , opposite the recess , of the hinge element on which the recess is provided and/or on an outer surface of the other hinge element , which limiting element rests against the outer surface of the other hinge element in a first end position (E1) of the hinge , a first contact point (KP1) being provided on the limiting element , which first contact point contacts the outer surface of the other hinge element in the first end position (E1) of the hinge , and in that the first contact point (KP1) is distanced from the axis of rotation at a first contact distance (LK1) which is at least 5% of an axial extension (H) of the hinge , preferably at least 5 mm, the at least one limiting element having a damping element, preferably an elastic material, or being designed as a damping element, to dampen an impact of a hinge element on the limiting element and/or an impact of the limiting element on the outer surface of the other hinge element in the first end position (E1) of the hinge .
A container , which comprises at least two parts connected to one another, which parts form a bottom part and a side part or a hollow cylinder segment of the container , the parts consisting of refractory metal or a refractory metal alloy with a refractory metal content > 80 wt.%, wherein the at least two parts are connected to one another at least in some regions by way of a thermally sprayed layer for foming the container .
Household appliance, in particular household refrigeration appliance , having a carcass , an appliance compartment arranged in the carcass and a door leaf , which is embodied for opening and closing the appliance compartment and is pivotably mounted in relation to the carcass by means of at least one bearing apparatus , which has a bearing pin and a bearing bush plugged onto the bearing pin , wherein the bearing apparatus has a clamping apparatus , which is embodied to hold the bearing bush in its position on the bearing pin in which it is plugged onto the bearing pin , wherein the bearing bush has an at least substantially circular cylindrical outer contour and the bearing pin itself has a rectangular cross-sectional contour, wherein the bearing bush has the clamping apparatus , wherein the bearing bush has opposing inner webs that project into the centre of the bearing bush , wherein the clamping apparatus is formed by two clamping ribs , which are embodied in a resilient manner, in particular are produced from a resilient material, and the wall thicknesses of which are reduced compared to the wall thickness of the base body and/or a web of the bearing bush , and which clamping ribs are arranged on the webs , so that the bearing pin is clamped from two opposing sides, wherein the bearing bush has an at least substantially hollow cylindrical base body , which has an inner peripheral wall , wherein the peripheral wall has the webs , characterised in that the contour of the cross-section of a web has two right angles, which delimit a straight end contour section of an end face of the web , and clamping rib is arranged, in particular embodied, on at least one side wall of the web that connects to the end face , in particular at a right angle, and that the clamping ribs have a rib edge that projects inwards over the end face of the web at its free end.
An underwater energy harvesting drone comprising: a primary hull to be submersibly received in ocean water; a plurality of thermoelectric modules each module of said plurality of thermoelectric modules having a first operational interface in thermal contact with the primary hull; a thermal transfer element in contact with a second operational interface on the plurality of thermoelectric modules; an electrical power storage device connected to the plurality of thermoelectric modules; wherein positioning of the primary hull to create a thermal gradient between the primary hull and the thermal transfer element induces electrical power generation by the thermoelectric modules thereby charging the electrical power storage device; an electrical motor connected to receive power from the electrical power storage device; a propulsor driven by said electrical motor; control planes engaged to the primary hull; and, a control system adapted to provide control signals to the electrical motor and control planes pursuant to a navigational profile, wherein the control system is configured to navigate the underwater energy harvesting drone autonomously pursuant to the navigational profile; wherein the thermal transfer element comprises an internal storage tank adapted to receive cold ocean water in a first position and store the cold ocean water in a second position, and the navigational profile causes locating the primary hull in a hot ocean water plume of a hydrothermal vent. a primary hull to be submersibly received in ocean water; a plurality of thermoelectric modules each module of said plurality of thermoelectric modules having a first operational interface in thermal contact with the primary hull; a thermal transfer element in contact with a second operational interface on the plurality of thermoelectric modules; an electrical power storage device connected to the plurality of thermoelectric modules; wherein positioning of the primary hull to create a thermal gradient between the primary hull and the thermal transfer element induces electrical power generation by the thermoelectric modules thereby charging the electrical power storage device; an electrical motor connected to receive power from the electrical power storage device; a propulsor driven by said electrical motor; control planes engaged to the primary hull; and, a control system adapted to provide control signals to the electrical motor and control planes pursuant to a navigational profile, wherein the control system is configured to navigate the underwater energy harvesting drone autonomously pursuant to the navigational profile; wherein the thermal transfer element comprises an internal storage tank adapted to receive cold ocean water in a first position and store the cold ocean water in a second position, and the navigational profile causes locating the primary hull in a hot ocean water plume of a hydrothermal vent.
A three-dimensional printing method, comprising: applying a polymeric build material; selectively applying a fusing agent on at least a portion of the polymeric build material; selectively applying a mechanical tailoring agent on at least a region of the portion, wherein two or more mechanical tailoring agents are applied in different patterns; exposing the polymeric build material to radiation, thereby fusing the at least the portion of the polymeric build material in contact with the fusing agent to form a layer; wherein the mechanical tailoring agents form a composite layer in the at least the region, and wherein the composite layer has a different mechanical property than that of an area of the layer of polymeric build material and fusing agent not in contact with the mechanical tailoring agents; and wherein the mechanical tailoring agents are a plasticizer liquid including a plasticizer and a mechanical reinforcer liquid including a mechanical reinforcer, and wherein the composite layer has greater ductility or rigidity than that of the area of the layer not in contact with the mechanical tailoring agents. applying a polymeric build material; selectively applying a fusing agent on at least a portion of the polymeric build material; selectively applying a mechanical tailoring agent on at least a region of the portion, wherein two or more mechanical tailoring agents are applied in different patterns; exposing the polymeric build material to radiation, thereby fusing the at least the portion of the polymeric build material in contact with the fusing agent to form a layer; wherein the mechanical tailoring agents form a composite layer in the at least the region, and wherein the composite layer has a different mechanical property than that of an area of the layer of polymeric build material and fusing agent not in contact with the mechanical tailoring agents; and wherein the mechanical tailoring agents are a plasticizer liquid including a plasticizer and a mechanical reinforcer liquid including a mechanical reinforcer, and wherein the composite layer has greater ductility or rigidity than that of the area of the layer not in contact with the mechanical tailoring agents.
Process for producing a coated object by deposition of at least one transparent conductive doped metal oxide layer , a TCO (transparent conductive oxide), on a substrate , comprising the deposition (I) without additional heating of the substrate before commencement of the deposition (I) and a subsequent heat treatment (II) of the coating by laser irradiation, characterized in that lasers in the form of laser diodes or Nd:YAG lasers in the wavelength range of from 1000 nm to 1200 nm or Yb:YAG lasers in the wavelength range from 1000 nm to 1200 nm or Er:YAG lasers or Ho:YAG lasers are used for producing the laser radiation.
A box packing apparatus comprising: a first conveyor that conveys an article (C); a parallel link robot that takes hold of the article (C) on the first conveyor and carries it into a box (B) that has an upper opening (TC); and a flap folding mechanism that folds open to the outside of the upper opening (TC) at least one of plural cover flaps (F1, F2, F3, F4) of the box (B) that are located around the upper opening (TC), wherein the flap folding mechanism folds open to the outside of the upper opening (TC) a conveyor-side cover flap (F1) that is the cover flap located in the closest position to the first conveyor when it has been folded open to the outside of the upper opening (TC), wherein the parallel link robot moves the article (C) and carries the article (C) into the box (B) at a height position above the cover flap (F1) that has been folded open and lower than upper ends of the other cover flaps (F2, F3, F4) that are not folded open. a first conveyor that conveys an article (C); a parallel link robot that takes hold of the article (C) on the first conveyor and carries it into a box (B) that has an upper opening (TC); and a flap folding mechanism that folds open to the outside of the upper opening (TC) at least one of plural cover flaps (F1, F2, F3, F4) of the box (B) that are located around the upper opening (TC), wherein the flap folding mechanism folds open to the outside of the upper opening (TC) a conveyor-side cover flap (F1) that is the cover flap located in the closest position to the first conveyor when it has been folded open to the outside of the upper opening (TC), wherein the parallel link robot moves the article (C) and carries the article (C) into the box (B) at a height position above the cover flap (F1) that has been folded open and lower than upper ends of the other cover flaps (F2, F3, F4) that are not folded open.
Pulper for circulating a fibre suspension contained in a container of the pulper having at least one sieve , the sieve surface of which is provided with sieve openings and is swept by a rotor , wherein the rotor is formed by a rotor head , to which multiple rotor blades are fastened on the circumference and the rotor circle of the sieve swept by the rotor blades has multiple strip-like elevations , wherein the cutting angle between the working edge of the rotor blades in the rotation direction and the shear edge of the elevations against the rotation direction remains at least partially constant radially outwards and/or increases at least partially radially outwards and wherein the cutting angle between the working edge and the shear edge lies between 80° and 120°.
A lock for releasably securing a wear member to earth working equipment to protect the equipment from wear during use, the lock comprising: a collar to engage and be rotatably secured in a hole in the wear member, the collar including a threaded opening ; and a threaded pin received into the threaded opening that when turned moves the threaded pin inward or outward between an extended position where the lock retains the wear member on the earth working equipment and a retracted position where the wear member can be installed on and removed from the earth working equipment; characterized in that the lock further comprises: a latching detent including a biased tooth projecting outward on the pin; and there are provided two spaced apart recesses within the threaded opening to receive the tooth in the extended and retracted positions respectively. a collar to engage and be rotatably secured in a hole in the wear member, the collar including a threaded opening ; and a threaded pin received into the threaded opening that when turned moves the threaded pin inward or outward between an extended position where the lock retains the wear member on the earth working equipment and a retracted position where the wear member can be installed on and removed from the earth working equipment; a latching detent including a biased tooth projecting outward on the pin; and there are provided two spaced apart recesses within the threaded opening to receive the tooth in the extended and retracted positions respectively.
A method in a user equipment, UE, the method comprising: obtaining (S102, S202) an identification of two or more waveforms, comprising receiving an identification of at least one of the two or more waveforms via radio resource control, RRC, signaling received from a radio network node ; receiving (S104, S204) a downlink control message from the radio network node, the downlink control message comprising an uplink, UL, grant having a modulation and coding scheme, MCS, index; selecting (S106, S206) one waveform from the two or more waveforms for an upcoming uplink transmission to the radio network node, the waveform being selected based at least in part on the MCS index of the downlink control message and on an RRC configuration of the UE so as to determine a waveform type using the MCS index signalled in the UL grant and an associated MCS/transport block size, TBS, table; transmitting (S108, S208) the uplink transmission to the radio network node using the selected waveform. obtaining (S102, S202) an identification of two or more waveforms, comprising receiving an identification of at least one of the two or more waveforms via radio resource control, RRC, signaling received from a radio network node ; receiving (S104, S204) a downlink control message from the radio network node, the downlink control message comprising an uplink, UL, grant having a modulation and coding scheme, MCS, index; selecting (S106, S206) one waveform from the two or more waveforms for an upcoming uplink transmission to the radio network node, the waveform being selected based at least in part on the MCS index of the downlink control message and on an RRC configuration of the UE so as to determine a waveform type using the MCS index signalled in the UL grant and an associated MCS/transport block size, TBS, table; transmitting (S108, S208) the uplink transmission to the radio network node using the selected waveform.
A garment care device comprising: - a treatment surface for treating a garment, - a steam generator being in thermal contact with the treatment surface, wherein the steam generator is configured to be heated by an electrical heater , the steam generator comprising a steaming surface with a water dosing point (DP) being arranged to receive water for generating steam, - a temperature sensor having a temperature sensing element for generating a signal for controlling the electrical heater, the temperature sensor being arranged in a central area (CA) of the steaming surface, - a main groove arranged in the steaming surface, the main groove having a first extremity arranged at proximity of the water dosing point and a second extremity arranged at proximity of the central area, for carrying water between the water dosing point and the central area, - a first groove arranged in the steaming surface, and characterized in that the main groove has a bottom surface being inclined compared to the treatment surface , and that first groove extends towards a first rear area (RA1) of the steaming surface, wherein the main groove and the first groove are fluidly connected at said second extremity. - a treatment surface for treating a garment, - a steam generator being in thermal contact with the treatment surface, wherein the steam generator is configured to be heated by an electrical heater , the steam generator comprising a steaming surface with a water dosing point (DP) being arranged to receive water for generating steam, - a temperature sensor having a temperature sensing element for generating a signal for controlling the electrical heater, the temperature sensor being arranged in a central area (CA) of the steaming surface, - a main groove arranged in the steaming surface, the main groove having a first extremity arranged at proximity of the water dosing point and a second extremity arranged at proximity of the central area, for carrying water between the water dosing point and the central area, - a first groove arranged in the steaming surface, and characterized in that
Sensor arrangement for capturing a rotor position of an electric motor, in particular of a motor vehicle control device, wherein the sensor arrangement is configured as a contactlessly operating sensor arrangement , which comprises at least one permanent magnet and at least one magnetic field sensor , wherein the permanent magnet has at least one depression in at least one top surface (2-3) facing the magnetic field sensor, wherein a longer axis (x-direction) of the depression extends along at least a first pole boundary (N-S) of the magnetization of the permanent magnet and the permanent magnet has, parallel to the longer axis (x-direction) of the depression and/or the first pole boundary (N-S) of the magnetization of the permanent magnet, side surfaces (2-1), which describe a curved profile, characterized in that the curved profile of the side surfaces (2-1) is configured to be concave.
A computing device for switching between operating systems when moving between an untrusted domain and a trusted domain , the computing device comprising: a processor; a memory coupled to the processor; and a non-transitory computer readable storage medium coupled to the processor and comprising instructions, that when executed by the processor, cause the processor to: instantiate a copy-on-write virtual computing system executing a second operating system ; delete a first operating system from the non-transitory computer readable storage medium or the memory; while the copy-on-write virtual computing system is executing the second operating system copy the second operating system to the non-transitory computer readable storage medium; instantiate the second operating system on the computing device ; and merge changes caused by the second operating system executed in the copy-on-write virtual computing system into the second operating system executed in the memory, wherein the copy-on-write virtual computing system is such that changes to the state of an operating system executed by the copy-on-write virtual computing system or changes to user level data are separately and privately copied. a processor; a memory coupled to the processor; and a non-transitory computer readable storage medium coupled to the processor and comprising instructions, that when executed by the processor, cause the processor to: instantiate a copy-on-write virtual computing system executing a second operating system ; delete a first operating system from the non-transitory computer readable storage medium or the memory; while the copy-on-write virtual computing system is executing the second operating system copy the second operating system to the non-transitory computer readable storage medium; instantiate the second operating system on the computing device ; and merge changes caused by the second operating system executed in the copy-on-write virtual computing system into the second operating system executed in the memory, instantiate a copy-on-write virtual computing system executing a second operating system ; delete a first operating system from the non-transitory computer readable storage medium or the memory; while the copy-on-write virtual computing system is executing the second operating system copy the second operating system to the non-transitory computer readable storage medium; instantiate the second operating system on the computing device ; and merge changes caused by the second operating system executed in the copy-on-write virtual computing system into the second operating system executed in the memory, wherein the copy-on-write virtual computing system is such that changes to the state of an operating system executed by the copy-on-write virtual computing system or changes to user level data are separately and privately copied.
Rifaximin for use in retreating a subject having diarrhea-predominant IBS (d-IBS), being a responder to an initial treatment of d-IBS with rifaximin and having a recurrence of abdominal pain or stool consistency for at least 3 weeks during a 4-week assessment period, comprising - an initial treatment phase comprising a 2 weeks administration of 550 mg of rifaximin three times daily (TID) and a 2 weeks of treatment-free follow-up, - a first treatment-free maintenance phase of up to 8 to an additional 12 weeks, - a first repeat treatment phase comprising a 2 weeks administration of 550 mg of rifaximin TID and a 2 weeks of treatment-free follow-up, - a second treatment-free maintenance phase of up to 8 weeks, - a second repeat treatment phase comprising a 2 weeks administration of 550 mg of rifaximin TID and a 2 weeks treatment-free follow-up. - an initial treatment phase comprising a 2 weeks administration of 550 mg of rifaximin three times daily (TID) and a 2 weeks of treatment-free follow-up, - a first treatment-free maintenance phase of up to 8 to an additional 12 weeks, - a first repeat treatment phase comprising a 2 weeks administration of 550 mg of rifaximin TID and a 2 weeks of treatment-free follow-up, - a second treatment-free maintenance phase of up to 8 weeks, - a second repeat treatment phase comprising a 2 weeks administration of 550 mg of rifaximin TID and a 2 weeks treatment-free follow-up.