mhurhangee/patent-ind-claim-en huggingface dataset:
A microscope (100; 510) comprising: a light emission module for providing illumination for a sample of organic tissue in a plurality of wavelength bands; a first and a second imaging sensor module configured to independently sense light in a plurality of mutually separated wavelength bands of the plurality of wavelength bands, wherein the first imaging sensor module is configured to sense light in a third subset of wavelength bands of the plurality of mutually separated wavelength bands, and wherein the second imaging sensor module is configured to sense light in a fourth subset of wavelength bands of the plurality of mutually separated wavelength bands, wherein each of the third and fourth subset of wavelength bands comprises two or more wavelength bands; a processing module configured to: control the light emission module such, that in a first operating mode light in a first subset of the plurality of wavelength bands is emitted towards the sample of organic tissue , and that in a second operating mode light in a second subset of the plurality of wavelength bands is emitted towards the sample of organic tissue , the first and second subset of wavelength bands being at least partially different, and use the first and second imaging sensor modules to perform reflectance imaging and fluorescence imaging in each of the plurality of mutually separated wavelength bands based on the light emitted in the first and second operating modes. a light emission module for providing illumination for a sample of organic tissue in a plurality of wavelength bands; a first and a second imaging sensor module configured to independently sense light in a plurality of mutually separated wavelength bands of the plurality of wavelength bands, wherein the first imaging sensor module is configured to sense light in a third subset of wavelength bands of the plurality of mutually separated wavelength bands, and wherein the second imaging sensor module is configured to sense light in a fourth subset of wavelength bands of the plurality of mutually separated wavelength bands, wherein each of the third and fourth subset of wavelength bands comprises two or more wavelength bands; a processing module configured to: control the light emission module such, that in a first operating mode light in a first subset of the plurality of wavelength bands is emitted towards the sample of organic tissue , and that in a second operating mode light in a second subset of the plurality of wavelength bands is emitted towards the sample of organic tissue , the first and second subset of wavelength bands being at least partially different, and use the first and second imaging sensor modules to perform reflectance imaging and fluorescence imaging in each of the plurality of mutually separated wavelength bands based on the light emitted in the first and second operating modes.
Portion capsule for preparing a beverage such as coffee or tea in a beverage appliance, having a capsule which at the outlet end thereof is closed by a housing base that has a beverage outlet , and at the opposite inlet end forms an opening which is closed by a film/foil that for pressing water into the capsule interior is able to be perforated by a device , wherein the beverage substrate is situated within the interior of the capsule or within the interior of an inner capsule encapsulated in the capsule, and wherein an internal plate is disposed above the base of the capsule or of the inner capsule so as to be parallel to the base , characterized in that the internal plate on the external periphery thereof has notches and/or grooves for a restricted flow of the water, and that a sieve, mesh, net, non-woven fabric , perforated film or woven fabric is disposed on the internal plate so as to cover the latter.
An optical interferometer comprising - a plate and at least two slits or holes (31.1, 31.2) formed in the plate , wherein in each one of the slits or holes (31.1, 31.2) a quantum device (32.1, 32.2) is inserted such that the quantum devices (32.1, 32.2) comprise equal directional orientation, and each one of the quantum devices (32.1, 32.2) comprising a non-reciprocal transmission structure designed such that for first waves traversing the transmission structure in a forward direction the phases of the first waves are at least partially conserved, and for second waves traversing the transmission structure in a backward direction, the phases of the second waves are at least partially replaced by random ones, such that the phase conservation is more pronounced in the forward direction than in the backward direction; - a cavity comprising walls enclosing the interferometer such that at least one plate from a first wall to a second opposing wall thus divides the interior of the cavity into a first halve and a second halve; and - a black body radiator being disposed in a first half of the two halves such that it emits black body radiation towards the quantum devices (32.1, 32.2) to pass through the quantum devices in a forward direction, wherein the walls in the first half are reflective and the walls in the second half are black and the walls are in thermal equilibrium with an external bath. - a plate and at least two slits or holes (31.1, 31.2) formed in the plate , wherein in each one of the slits or holes (31.1, 31.2) a quantum device (32.1, 32.2) is inserted such that the quantum devices (32.1, 32.2) comprise equal directional orientation, and each one of the quantum devices (32.1, 32.2) comprising a non-reciprocal transmission structure designed such that for first waves traversing the transmission structure in a forward direction the phases of the first waves are at least partially conserved, and for second waves traversing the transmission structure in a backward direction, the phases of the second waves are at least partially replaced by random ones, such that the phase conservation is more pronounced in the forward direction than in the backward direction; - a cavity comprising walls enclosing the interferometer such that at least one plate from a first wall to a second opposing wall thus divides the interior of the cavity into a first halve and a second halve; and - a black body radiator being disposed in a first half of the two halves such that it emits black body radiation towards the quantum devices (32.1, 32.2) to pass through the quantum devices in a forward direction, wherein the walls in the first half are reflective and the walls in the second half are black and the walls are in thermal equilibrium with an external bath.
Mounting assembly for mounting a measuring insert for determining and/or monitoring at least the temperature of a medium (M) in/on a pipe or a vessel , at least comprising: a holding member for accommodating said measuring insert , which holding member serves for a detachable fastening of said measuring insert wherein said holding member comprises at least one fastening means for detaching and fixing at least a part of the measuring insert at a defined position relative to the pipe or vessel , and a shield unit for insulating at least said part of the measuring insert accommodated by said holding member against the environment, which shield unit is embodied so that it at least partially surrounds said holding member and said part of the measuring insert accommodated by said holding member , and which shield unit at least comprises at least one opening for receiving said measuring insert , and at least one fastening unit for detaching and fixing said shield unit to the pipe or vessel . characterized in that the fastening means of the holding member comprises a screw or a pushing element, which screw or pushing element serves for detaching and fixing at least a part of said measuring insert in said holding member , or said member comprises an annular clamping element with adjustable diameter which serves for detaching and fixing at least a part of said measuring insert at a defined position relative to said pipe or vessel . a holding member for accommodating said measuring insert , which holding member serves for a detachable fastening of said measuring insert wherein said holding member comprises at least one fastening means for detaching and fixing at least a part of the measuring insert at a defined position relative to the pipe or vessel , and a shield unit for insulating at least said part of the measuring insert accommodated by said holding member against the environment, which shield unit is embodied so that it at least partially surrounds said holding member and said part of the measuring insert accommodated by said holding member , and which shield unit at least comprises at least one opening for receiving said measuring insert , and at least one fastening unit for detaching and fixing said shield unit to the pipe or vessel . characterized in that the fastening means of the holding member comprises a screw or a pushing element, which screw or pushing element serves for detaching and fixing at least a part of said measuring insert in said holding member , or said member comprises an annular clamping element with adjustable diameter which serves for detaching and fixing at least a part of said measuring insert at a defined position relative to said pipe or vessel .
Robotic arm with a number of N of actuator-driven articulated joints GV n , which are serially connected via arm members GL 1 , with n = 1, 2,..., N, and i = 1, 2,..., N-1, and N ≥ 6, wherein - the proximal arm member GL 1 of the robotic arm via the articulated joint GV, can be connected to a robot body RK, - the distal arm member GL N-1 of the robotic arm is connectable via the articulated joint GV N with an effector E, - arm members GL N-1 and GL N-2 are connected via the articulated joint GV N-1 and arm members GL N-2 and GL N-3 are connected via a the articulated joint GV N- 2 , and - each of the articulated joints GV N , GV N-1 , GV N-2 a allow for a movement around an associated rotational axis R GV,N , R GV,N-1 , R GV,N-2 . wherein the robotic arm is designed in such a way that - the rotational axes R GV,N-2 and R GV,N-1 intersect at an angle within a range of 50 to 130°. - the rotational axis R GV,N is radially arranged at a constant distance D1 to the rotational axis R GV,N- 1 , and is characterized in that the robotic arm is designed in such a way that - the articulated joint GV N-1 is set up to detect a force or torque around the rotational axis R GV,N-1 . - the proximal arm member GL 1 of the robotic arm via the articulated joint GV, can be connected to a robot body RK, - the distal arm member GL N-1 of the robotic arm is connectable via the articulated joint GV N with an effector E, - arm members GL N-1 and GL N-2 are connected via the articulated joint GV N-1 and arm members GL N-2 and GL N-3 are connected via a the articulated joint GV N- 2 , and - each of the articulated joints GV N , GV N-1 , GV N-2 a allow for a movement around an associated rotational axis R GV,N , R GV,N-1 , R GV,N-2 . wherein the robotic arm is designed in such a way that - the rotational axes R GV,N-2 and R GV,N-1 intersect at an angle within a range of 50 to 130°. - the rotational axis R GV,N is radially arranged at a constant distance D1 to the rotational axis R GV,N- 1 , and is characterized in that the robotic arm is designed in such a way that - the articulated joint GV N-1 is set up to detect a force or torque around the rotational axis R GV,N-1 .
A cap sterilization device comprising a sterilization chamber having a cap inlet and a cap outlet and guide means for guiding caps through the sterilization chamber , the device further comprising a nozzle for injecting a sterilant into the sterilization chamber and at least two exhaust outlets for evacuation of gases from the sterilization chamber , wherein a first exhaust outlet is arranged in the cap inlet and a second exhaust outlet is arranged in the cap outlet , characterized in that a valve is arranged upstream from the nozzle , between the nozzle and a vaporizer, the valve being configured to selectively redirect a flow from the vaporizer into an exhaust manifold instead of to the nozzle , based on input from a control system, in case of unexpected stops.
A molecular sample preparation instrument suitable for extraction related techniques, said instrument comprising: a sample cup (45;135) with one open filtered end and a mouth opposite said filtered end ; a reaction chamber surrounding said sample cup , said reaction chamber and said sample cup defining open jacket portions between the interior surfaces of said reaction chamber and exterior surfaces of said sample cup (45; 135), with said reaction chamber including, a drain floor in communication with said open filtered end of said sample cup (45;135); a pressure sealing lid over said mouth of said sample cup (45;135); a first solvent inlet from said pressure sealing lid to the interior of said sample cup (45;135); and a second solvent inlet from said drain floor into said reaction chamber ; and a reaction chamber heater in thermal contact with said reaction chamber ; so that solvent can be added from both of the first and second solvent inlets into said sample cup (45;135) and from said second solvent inlet into said jacket portions so that said heater can heat said reaction chamber and solvent in said jacket portions , and so that heated solvent in said jacket portions can heat said sample cup (45;135) and heat solvents and extraction samples inside said sample cup (45;135) so that solvent from said second inlet can enter said sample cup (45;135) through said open filtered end and favorably agitate extraction solvents and samples in said sample cup (45;135). a sample cup (45;135) with one open filtered end and a mouth opposite said filtered end ; a reaction chamber surrounding said sample cup , said reaction chamber and said sample cup defining open jacket portions between the interior surfaces of said reaction chamber and exterior surfaces of said sample cup (45; 135), with said reaction chamber including, a drain floor in communication with said open filtered end of said sample cup (45;135); a pressure sealing lid over said mouth of said sample cup (45;135); a first solvent inlet from said pressure sealing lid to the interior of said sample cup (45;135); and a second solvent inlet from said drain floor into said reaction chamber ; and a reaction chamber heater in thermal contact with said reaction chamber ; so that solvent can be added from both of the first and second solvent inlets into said sample cup (45;135) and from said second solvent inlet into said jacket portions so that said heater can heat said reaction chamber and solvent in said jacket portions , and so that heated solvent in said jacket portions can heat said sample cup (45;135) and heat solvents and extraction samples inside said sample cup (45;135) so that solvent from said second inlet can enter said sample cup (45;135) through said open filtered end and favorably agitate extraction solvents and samples in said sample cup (45;135).
Hopper for thermally conditioning by a process fluid plastics in granular and/or microgranular and/or powder and/or flake or similar form, said hopper comprising: - a containing body for containing said plastics to be thermally conditioned; and - process fluid diffusing means , positioned inside said containing body , and comprising drilled wall means in flowing communication with said containing body to diffuse said process fluid inside said containing body ; - wherein said process fluid diffusing means comprises process fluid supplying chamber means bounded by said drilled wall means ; said hopper being characterized in that said process fluid diffusing means comprises loose material for filling, at least partially, said supplying chamber means so as to form in said supplying chamber means a plurality of passages for said process fluid so as to homogenize and stabilize a flow of said process fluid exiting said supplying chamber means . - a containing body for containing said plastics to be thermally conditioned; and - process fluid diffusing means , positioned inside said containing body , and comprising drilled wall means in flowing communication with said containing body to diffuse said process fluid inside said containing body ; - wherein said process fluid diffusing means comprises process fluid supplying chamber means bounded by said drilled wall means ;
An electric power tool , in particular an angle grinder comprising a protective cover and a drive motor accommodated in a housing , which drives a rotor shaft , a tool spindle having a tool holder , which is connected to the rotor shaft by an angular gear , which is accommodated in a gear head , a bearing plate having a spindle passage , in which the tool spindle is rotatably accommodated in an axial direction, wherein the bearing plate has a mounting flange containing a passage opening for the tool holder , on which the protective cover can be rotatably mounted, the removal of which from the mounting flange in a retaining position of the protective cover is at least made difficult by a securing device , wherein the protective cover has a mounting flange on the cylindrical inner surface of which at least one first radial projection is formed along the inner circumferential direction, wherein the mounting flange has a cylindrical outer surface with a ring groove in the circumferential direction, and the securing device comprises a retaining ring , in particular a snap ring element, which in the retaining position is in engagement with the annular groove , wherein the electric power tool is characterized in that the retaining ring is arranged in the retaining position and between the receiving flange and the mounting flange and forms a stop for the at least one first radial projection , which stop blocks an axial outward movement of the protective cover away from the bearing plate. the mounting flange has a cylindrical outer surface with a ring groove in the circumferential direction, and the securing device comprises a retaining ring , in particular a snap ring element, which in the retaining position is in engagement with the annular groove , wherein the electric power tool is characterized in that the retaining ring is arranged in the retaining position and between the receiving flange and the mounting flange and forms a stop for the at least one first radial projection , which stop blocks an axial outward movement of the protective cover away from the bearing plate.
A hydraulic system for a vehicle, comprising a hydraulically actuated all wheel drive clutch , a hydraulically actuated shifting piston for changing between low range gear and high range gear, and a pressure source for actuating the all wheel drive clutch as well as the shifting piston , characterized in that the movement of the shifting piston also controls a valve function which serves to open a connection from the pressure source to the all wheel drive clutch only when the shifting piston has reached one of its end positions.
A timing controller for synchronizing switching times of relays to a zero-crossing, comprising: a memory ; the timing controller characterised in that it further comprises: a processor configured to execute executable instructions stored in the memory to: receive phase information of an alternating-current (AC) electric mains ; determine, from the phase information, a zero-crossing of the phase of the AC electric mains ; determine a reference time based on the zero-crossing; and transmit the reference time to each of two or more relay controllers (106-1, 106-2, 106-N, 306). receive phase information of an alternating-current (AC) electric mains ; determine, from the phase information, a zero-crossing of the phase of the AC electric mains ; determine a reference time based on the zero-crossing; and transmit the reference time to each of two or more relay controllers (106-1, 106-2, 106-N, 306).
An electric motor control method for controlling an electric motor based on a first torque command value corresponding to a required output of the electric motor , the electric motor control method comprising: a vibration damping step of calculating a second torque command value by correcting the first torque command value by a vibration compensation torque (T fb ), the vibration compensation torque being a torque correction value (T fb ) for suppressing vibration in an electric motor rotation speed; a limiting step of limiting the vibration compensation torque (T fb ) based on a limit request suggesting amount, the limit request suggesting amount being a parameter suggesting a situation in which suppression of vibration in the electric motor rotation speed is to be limited; a limit level determination step of determining a limit level representing a degree of limit on the vibration compensation torque (T fb ); and a torque control step of calculating a voltage command value by feeding back a torque suggesting amount suggesting an electric motor torque to the second torque command value, the voltage command value being a command value of a voltage supplied from a predetermined power source to the electric motor , the method is characterized in that , in the torque control step, a feedback gain of the torque suggesting amount is determined with reference to the limit level. a vibration damping step of calculating a second torque command value by correcting the first torque command value by a vibration compensation torque (T fb ), the vibration compensation torque being a torque correction value (T fb ) for suppressing vibration in an electric motor rotation speed; a limiting step of limiting the vibration compensation torque (T fb ) based on a limit request suggesting amount, the limit request suggesting amount being a parameter suggesting a situation in which suppression of vibration in the electric motor rotation speed is to be limited; a limit level determination step of determining a limit level representing a degree of limit on the vibration compensation torque (T fb ); and a torque control step of calculating a voltage command value by feeding back a torque suggesting amount suggesting an electric motor torque to the second torque command value, the voltage command value being a command value of a voltage supplied from a predetermined power source to the electric motor , the method is characterized in that , in the torque control step, a feedback gain of the torque suggesting amount is determined with reference to the limit level.